AbstractModeling and predicting the structure of proteins is one of the most important challenges of computational biology. Exact physical models are too complex to provide feasible prediction tools and other ab initio methods only use local and probabilistic information to fold a given sequence. We show in this paper that all-α transmembrane protein secondary and super-secondary structures can be modeled with a multi-tape S-attributed grammar. An efficient structure prediction algorithm using both local and global constraints is designed and evaluated. Comparison with existing methods shows that the prediction rates as well as the definition level are sensibly increased. Furthermore this approach can be generalized to more complex proteins
The number of unique transmembrane (TM) protein structures doubled in the last four years, which can...
Protein folding is a process of molecular self-assembly during which a disordered polypeptide chain ...
International audienceTransmembrane β-barrel (TMB) proteins are a special class of transmembrane pro...
SummaryWe show that amino acid covariation in proteins, extracted from the evolutionary sequence rec...
AbstractA reliable and widely used transmembrane protein structure prediction algorithm was applied ...
International audienceWe introduce a graph-theoretic model for predicting the supersecondary structu...
AI-based protein structure prediction pipelines, such as AlphaFold2, have achieved near-experimental...
Abstract Background Our goal is to develop a state-of-the-art protein secondary structure predictor,...
SummaryMembrane protein structure determination remains a challenging endeavor. Computational method...
International audienceBackground: Transmembrane beta-barrel proteins are a special class of transmem...
Three-dimensional (3D) models of four CASP3 targets were calculated using a simple modeling procedur...
The three-dimensional structure of protein is encoded in its amino acid sequence. Modern structure p...
The transmembrane β-barrel proteins (TMBs) are found in the outer membrane of Gram-negative bacteria...
Prediction of transmembrane (TM) helices by statistical methods suffers from lack of sufficient trai...
The number of unique transmembrane (TM) protein structures doubled in the last four years, which can...
Protein folding is a process of molecular self-assembly during which a disordered polypeptide chain ...
International audienceTransmembrane β-barrel (TMB) proteins are a special class of transmembrane pro...
SummaryWe show that amino acid covariation in proteins, extracted from the evolutionary sequence rec...
AbstractA reliable and widely used transmembrane protein structure prediction algorithm was applied ...
International audienceWe introduce a graph-theoretic model for predicting the supersecondary structu...
AI-based protein structure prediction pipelines, such as AlphaFold2, have achieved near-experimental...
Abstract Background Our goal is to develop a state-of-the-art protein secondary structure predictor,...
SummaryMembrane protein structure determination remains a challenging endeavor. Computational method...
International audienceBackground: Transmembrane beta-barrel proteins are a special class of transmem...
Three-dimensional (3D) models of four CASP3 targets were calculated using a simple modeling procedur...
The three-dimensional structure of protein is encoded in its amino acid sequence. Modern structure p...
The transmembrane β-barrel proteins (TMBs) are found in the outer membrane of Gram-negative bacteria...
Prediction of transmembrane (TM) helices by statistical methods suffers from lack of sufficient trai...
The number of unique transmembrane (TM) protein structures doubled in the last four years, which can...
Protein folding is a process of molecular self-assembly during which a disordered polypeptide chain ...
International audienceTransmembrane β-barrel (TMB) proteins are a special class of transmembrane pro...