TY - JOUR
T1 - Surface-based protein domains retrieval methods from a SHREC2021 challenge
AU - Langenfeld, Florent
AU - Aderinwale, Tunde
AU - Christoffer, Charles
AU - Shin, Woong Hee
AU - Terashi, Genki
AU - Wang, Xiao
AU - Kihara, Daisuke
AU - Benhabiles, Halim
AU - Hammoudi, Karim
AU - Cabani, Adnane
AU - Windal, Feryal
AU - Melkemi, Mahmoud
AU - Otu, Ekpo
AU - Zwiggelaar, Reyer
AU - Hunter, David
AU - Liu, Yonghuai
AU - Sirugue, Léa
AU - Nguyen, Huu Nghia H.
AU - Nguyen, Tuan Duy H.
AU - Nguyen-Truong, Vinh Thuyen
AU - Le, Danh
AU - Nguyen, Hai Dang
AU - Tran, Minh Triet
AU - Montès, Matthieu
N1 - Funding Information:
Léa Sirugue, Matthieu Montès and Florent Langenfeld are supported by the European Research Council Executive Agency under the research grant number 640,283 . Daisuke Kihara acknowledges supports from the National Institutes of Health ( R01GM133840 , R01GM123055 ) and the National Science Foundation ( DBI2003635 , CMMI1825941 , and MCB1925643 ). Charles Christoffer is supported by NIGMS -funded pre–doctoral fellowship ( T32 GM132024 ). Huu-Nghia H. Nguyen, Tuan-Duy H. Nguyen, Vinh-Thuyen Nguyen-Truong, Danh Le, Hai-Dang Nguyen, and Minh-Triet Tran are supported by National University Ho Chi Minh City (VNU-HCM) ( DS2020-42-01 ).
Funding Information:
Léa Sirugue, Matthieu Montès and Florent Langenfeld are supported by the European Research Council Executive Agency under the research grant number 640,283. Daisuke Kihara acknowledges supports from the National Institutes of Health (R01GM133840, R01GM123055) and the National Science Foundation (DBI2003635, CMMI1825941, and MCB1925643). Charles Christoffer is supported by NIGMS-funded pre–doctoral fellowship (T32 GM132024). Huu-Nghia H. Nguyen, Tuan-Duy H. Nguyen, Vinh-Thuyen Nguyen-Truong, Danh Le, Hai-Dang Nguyen, and Minh-Triet Tran are supported by National University Ho Chi Minh City (VNU-HCM) (DS2020-42-01).
Publisher Copyright:
© 2021
PY - 2022/3
Y1 - 2022/3
N2 - Proteins are essential to nearly all cellular mechanism and the effectors of the cells activities. As such, they often interact through their surface with other proteins or other cellular ligands such as ions or organic molecules. The evolution generates plenty of different proteins, with unique abilities, but also proteins with related functions hence similar 3D surface properties (shape, physico-chemical properties, . . . ). The protein surfaces are therefore of primary importance for their activity. In the present work, we assess the ability of different methods to detect such similarities based on the geometry of the protein surfaces (described as 3D meshes), using either their shape only, or their shape and the electrostatic potential (a biologically relevant property of proteins surface). Five different groups participated in this contest using the shape-only dataset, and one group extended its pre-existing method to handle the electrostatic potential. Our comparative study reveals both the ability of the methods to detect related proteins and their difficulties to distinguish between highly related proteins. Our study allows also to analyze the putative influence of electrostatic information in addition to the one of protein shapes alone. Finally, the discussion permits to expose the results with respect to ones obtained in the previous contests for the extended method. The source codes of each presented method have been made available online.
AB - Proteins are essential to nearly all cellular mechanism and the effectors of the cells activities. As such, they often interact through their surface with other proteins or other cellular ligands such as ions or organic molecules. The evolution generates plenty of different proteins, with unique abilities, but also proteins with related functions hence similar 3D surface properties (shape, physico-chemical properties, . . . ). The protein surfaces are therefore of primary importance for their activity. In the present work, we assess the ability of different methods to detect such similarities based on the geometry of the protein surfaces (described as 3D meshes), using either their shape only, or their shape and the electrostatic potential (a biologically relevant property of proteins surface). Five different groups participated in this contest using the shape-only dataset, and one group extended its pre-existing method to handle the electrostatic potential. Our comparative study reveals both the ability of the methods to detect related proteins and their difficulties to distinguish between highly related proteins. Our study allows also to analyze the putative influence of electrostatic information in addition to the one of protein shapes alone. Finally, the discussion permits to expose the results with respect to ones obtained in the previous contests for the extended method. The source codes of each presented method have been made available online.
KW - SHREC2021
KW - Proteins surface
KW - 2000 MSC: 92-08
UR - http://www.scopus.com/inward/record.url?scp=85121706245&partnerID=8YFLogxK
UR - http://www.scopus.com/inward/citedby.url?scp=85121706245&partnerID=8YFLogxK
U2 - 10.1016/j.jmgm.2021.108103
DO - 10.1016/j.jmgm.2021.108103
M3 - Article (journal)
C2 - 34959149
AN - SCOPUS:85121706245
SN - 1093-3263
VL - 111
JO - Journal of Molecular Graphics and Modelling
JF - Journal of Molecular Graphics and Modelling
M1 - 108103
ER -