TY - GEN
T1 - Representation and Data Structure of Genetic Algorithms for Protein Threading
AU - Yadgari, Jacqueline
AU - Amihood, A.
AU - Unger, R
N1 - Place of conference:Linz, Austria
PY - 1998
Y1 - 1998
N2 - Despite many years of efforts, a direct prediction of protein structure from sequence is
still not possible. As a result, in the last few years researchers have started to address
the ``inverse folding problem". How to identify and align a sequence to the fold with
which it is most compatible, a process called Threading. In the two meetings in which
protein folding predictions were objectively evaluated [Lemer et. al., 1995], it became
clear that threading promises a real breakthrough, but that much improvement is still
needed. Major effort is required in the algorithmic component to ensure that each
sequence will be aligned in the optimal threading rather than as an approximation. We
used the technique of Genetic Algorithms in order to significantly improve the ability
of threading algorithms to find the optimal alignment of a sequence to a structure, i.e.
the alignment with the minimum free energy. We designed a representation of the
threading alignment as a string on which genetic operators can be effectively
implemented, and investigated the appropriate data structure and parameter selection.
AB - Despite many years of efforts, a direct prediction of protein structure from sequence is
still not possible. As a result, in the last few years researchers have started to address
the ``inverse folding problem". How to identify and align a sequence to the fold with
which it is most compatible, a process called Threading. In the two meetings in which
protein folding predictions were objectively evaluated [Lemer et. al., 1995], it became
clear that threading promises a real breakthrough, but that much improvement is still
needed. Major effort is required in the algorithmic component to ensure that each
sequence will be aligned in the optimal threading rather than as an approximation. We
used the technique of Genetic Algorithms in order to significantly improve the ability
of threading algorithms to find the optimal alignment of a sequence to a structure, i.e.
the alignment with the minimum free energy. We designed a representation of the
threading alignment as a string on which genetic operators can be effectively
implemented, and investigated the appropriate data structure and parameter selection.
UR - https://scholar.google.co.il/scholar?q=Representation+and+Data+Structure+of+Genetic+Algorithms+for+Protein+Threading&btnG=&hl=en&as_sdt=0%2C5
M3 - Conference contribution
BT - CP97 Workshop on Constraints and Bioinformatics/Biocomputing
ER -