Representation of Protein Entities (RoPE)
RoPE clusters related protein structures on torsion angles to derive an interpretable, mathematical conformational space of that protein, revealing relevant protein dynamics.
Cite this software
Description
Representation of Protein Entities (RoPE) discerns protein conformational changes in a torsion angle-derived space, henceforth referred to as RoPE space. RoPE space's edge over atomic coordinate space lies in not only recognizing large domain or secondary structure movements but subtle, short-lived, infrequent fluctuations crucial in understanding and tracing protein dynamics beyond currently known (intermediate) states. Consequently, it finds correlations with the resolution of the data set, data collection temperature, space group and bound ligand, surpassing that of atomic coordinates-based tools.
Participating organisations
Reference papers
- 1.Author(s): Jake Hill, Yelyzaveta Pulnova, Elke De Zitter, Helen M. Ginn, Briony A. YorkePublished in FEBS Open Bio by Wiley in 202610.1002/2211-5463.70218
- 2.Author(s): Briony A. Yorke, Helen M. GinnPublished in Communications Chemistry by Springer Science and Business Media LLC in 202510.1038/s42004-025-01754-1
- 3.Author(s): Helen Mary GinnPublished in Protein Science by Wiley in 202310.1002/pro.4608
Mentions
- 1.Author(s): Eike C. Schulz, Andreas Prester, David von Stetten, Gargi Gore, Caitlin E. Hatton, Kim Bartels, Jan-Philipp Leimkohl, Hendrik Schikora, Helen M. Ginn, Friedjof Tellkamp, Pedram MehrabiPublished in Nature Communications by Springer Science and Business Media LLC in 202510.1038/s41467-025-61631-2
- 2.Author(s): Jenitha R. Patel, Timothy J. Bonzon, Timothy F. Bakht, Omowumi O. Fagbohun, Jonathan A. ClingerPublished in Biomolecules by MDPI AG in 2025, page: 127410.3390/biom15091274
- 3.Author(s): Stephanie A. Wankowicz, James S. FraserPublished in Nature Chemical Biology by Springer Science and Business Media LLC in 2025, page: 623-63410.1038/s41589-025-01879-3
- 4.Author(s): Zheng Jiang, Ye Zhang, Guipu Yang, Rong LiuPublished in Journal of Chemical Theory and Computation by American Chemical Society (ACS) in 2025, page: 9200-921310.1021/acs.jctc.5c00831
- 5.Author(s): Virgil A. Woods, Shivani Sharma, Alexis M. Lemberikman, Daniel A. KeedyPublished in Current Opinion in Structural Biology by Elsevier BV in 2025, page: 10312510.1016/j.sbi.2025.103125
- 6.Author(s): Luis Moncayo Molina, María Erlinda Aguaiza Pichazaca, José Isidro Yamasqui Padilla, María Eufemia Pinos Calle, Karla Maribel Yamasqui Pinos, Arlene Cardozo Urdaneta, Carla Lossada, Yovani Marrero-Ponce, Felix Martinez-Rios, Ysaías J. Alvarado, Aleivi Pérez, Lenin González-PazPublished in Biophysical Chemistry by Elsevier BV in 2025, page: 10738810.1016/j.bpc.2024.107388
- 7.Author(s): Melanie Schneider, José Antonio Marquez, Andrew R. LeachPublished in Structure by Elsevier BV in 2025, page: 1781-1792.e310.1016/j.str.2025.07.001
- 8.Author(s): John R. HelliwellPublished in Acta Crystallographica Section D Structural Biology by International Union of Crystallography (IUCr) in 2024, page: 216-21910.1107/s2059798324001451
- 9.Author(s): Ammaar A. Saeed, Margaret A. Klureza, Doeke R. HekstraPublished in Journal of Chemical Information and Modeling by American Chemical Society (ACS) in 2024, page: 8937-895110.1021/acs.jcim.4c01380
- 10.Author(s): Liliana Guerrero, Ali Ebrahim, Blake T. Riley, Minyoung Kim, Qingqiu Huang, Aaron D. Finke, Daniel A. KeedyPublished in Communications Biology by Springer Science and Business Media LLC in 202410.1038/s42003-023-05609-0
- 11.Author(s): Jake A. Hill, Yvonne Nyathi, Sam Horrell, David von Stetten, Danny Axford, Robin L. Owen, Godfrey S. Beddard, Arwen R. Pearson, Helen M. Ginn, Briony A. YorkePublished in Communications Chemistry by Springer Science and Business Media LLC in 202410.1038/s42004-024-01163-w
- 1.Author(s): Maria Spiliopoulou, David von Stetten, Andreas Prester, Eike C. SchulzPublished by openRxiv in 202610.64898/2026.03.26.714466
- 2.Author(s): Mehagan S. Hopkins, Thomas C. Terwilliger, Pavel V. Afonine, Helen M. Ginn, James M. HoltonPublished by openRxiv in 202610.64898/2026.02.21.706873
- 3.Author(s): Melanie Schneider, José Antonio Marquez, Andrew R. LeachPublished by Elsevier BV in 202510.2139/ssrn.5146638
- 4.Author(s): Melanie Schneider, José Antonio Marquez, Andrew R LeachPublished by openRxiv in 202410.1101/2024.12.21.629432
- 5.Author(s): Alexander PowellPublished by openRxiv in 202410.1101/2024.11.10.622713
- 6.Author(s): Ammaar A. Saeed, Margaret A. Klureza, Doeke R. HekstraPublished by openRxiv in 202410.1101/2024.07.29.605395
- 7.Author(s): Stephanie Wankowicz, James FraserPublished by American Chemical Society (ACS) in 202410.26434/chemrxiv-2023-9b5k7-v2
- 8.Author(s): Briony A Yorke, Helen M GinnPublished by openRxiv in 202410.1101/2024.08.07.607056
- 9.Author(s): Stephanie Wankowicz, James FraserPublished by American Chemical Society (ACS) in 202410.26434/chemrxiv-2023-9b5k7-v3
- 10.Author(s): Jake A Hill, Yvonne Nyathi, Sam Horrell, David von Stetten, Danny Axford, Robin L Owen, Godfrey Beddard, Arwen R Pearson, Helen Mary Ginn, Briony A YorkePublished by openRxiv in 202310.1101/2023.08.25.554810
- 11.Author(s): Liliana Guerrero, Ali Ebrahim, Blake T. Riley, Minyoung Kim, Qingqiu Huang, Aaron D. Finke, Daniel A. KeedyPublished by openRxiv in 202310.1101/2023.05.02.538097
- 12.Author(s): Eike C. Schulz, Andreas Prester, David von Stetten, Gargi Gore, Caitlin E. Hatton, Kim Bartels, Jan-Philipp Leimkohl, Hendrik Schikora, Helen M. Ginn, Friedjof Tellkamp, Pedram MehrabiPublished by openRxiv in 202110.1101/2021.11.07.467596