TY - JOUR
T1 - Sounds interesting
T2 - can sonification help us design new proteins?
AU - Franjou, Sebastian L.
AU - Milazzo, Mario
AU - Yu, Chi Hua
AU - Buehler, Markus J.
N1 - Publisher Copyright:
© 2019, © 2019 Informa UK Limited, trading as Taylor & Francis Group.
PY - 2019/12/2
Y1 - 2019/12/2
N2 - Introduction: The practice of turning scientific data into music, a practice known as sonification, is a growing field. Driven by analogies between the hierarchical structures of proteins and many forms of music, multiple attempts of mapping proteins to music have been made. Previous works have either worked at a low level, mapping amino acid to notes, or at a higher level, using the overall structure as a basis for composition. Areas covered: We report a comprehensive mapping strategy that encompasses the encoding of the geometry of proteins, in addition to the amino acid sequence and secondary structure information. This leads to a piece of music that is both more complete and closely linked to the original protein. By using this mapping, we can invert the process and map music to proteins, retrieving not only the amino acid sequence but also the secondary structure and folding from musical data. Expert opinion: We can train a machine learning model on ‘protein music’ to generate new music that can be translated to new proteins. By selecting proper datasets and conditioning parameters on the generative model, we could tune de novo proteins with high level parameters to achieve certain protein design features.
AB - Introduction: The practice of turning scientific data into music, a practice known as sonification, is a growing field. Driven by analogies between the hierarchical structures of proteins and many forms of music, multiple attempts of mapping proteins to music have been made. Previous works have either worked at a low level, mapping amino acid to notes, or at a higher level, using the overall structure as a basis for composition. Areas covered: We report a comprehensive mapping strategy that encompasses the encoding of the geometry of proteins, in addition to the amino acid sequence and secondary structure information. This leads to a piece of music that is both more complete and closely linked to the original protein. By using this mapping, we can invert the process and map music to proteins, retrieving not only the amino acid sequence but also the secondary structure and folding from musical data. Expert opinion: We can train a machine learning model on ‘protein music’ to generate new music that can be translated to new proteins. By selecting proper datasets and conditioning parameters on the generative model, we could tune de novo proteins with high level parameters to achieve certain protein design features.
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U2 - 10.1080/14789450.2019.1697236
DO - 10.1080/14789450.2019.1697236
M3 - Article
C2 - 31756126
AN - SCOPUS:85075709898
SN - 1478-9450
VL - 16
SP - 875
EP - 879
JO - Expert Review of Proteomics
JF - Expert Review of Proteomics
IS - 11-12
ER -