A comprehensive nomenclature system for cyclodextrins

被引:0
作者
Anderson, Amelia M. [1 ]
O'Connor, Matthew S. [1 ]
Pipkin, James [2 ]
Malanga, Milo [3 ]
Sohajda, Tamas [3 ]
Loftsson, Thorsteinn [4 ]
Szente, Lajos [5 ]
Garcia-Fandino, Rebeca [6 ]
Pineiro, Angel [7 ]
机构
[1] Cyclar Therapeut, 8001 Redwood Blvd, Novato, CA 94945 USA
[2] Ligand Pharmaceut Inc, 3911 Sorrento Valley Blvd, San Diego, CA 92121 USA
[3] CarboHyde, Berlin U 47-49, H-1045 Budapest, Hungary
[4] Univ Iceland, Fac Pharmaceut Sci, Hofsvallagata 53, IS-107 Reykjavik, Iceland
[5] CycloLab Cyclodextrin R&D Lab Ltd, Illat U 7, H-1097 Budapest, Hungary
[6] Univ Santiago de Compostela, Ctr Res Biol Chem & Mol Mat, Dept Organ Chem, CIQUS, Santiago De Compostela, Spain
[7] Univ Santiago de Compostela, Fac Phys, Dept Appl Phys, Santiago De Compostela, Spain
关键词
Cyclodextrins; Nomenclature; Mutations; Chemical substitutions; Cyclic permutations; Sequences; MOLECULAR SIMULATION; GROMACS; EFFICIENT;
D O I
10.1016/j.carbpol.2025.123600
中图分类号
O69 [应用化学];
学科分类号
081704 ;
摘要
Modified cyclodextrins (CDs) are cyclic oligosaccharides with many applications in drug delivery, catalysis, and as active pharmaceutical ingredients. In general, they exist as distributions of structurally diverse molecules rather than single-isomer compounds. Their performance depends on the number of glucopyranose units (GPUs), and the type, number, and position of chemical substitutions in their hydroxyl groups. Effectively targeting individual species within these distributions is essential for optimizing CDs for specific applications. Computational techniques can generate large datasets to AI-driven structural optimization, but the absence of a standardized nomenclature system for modified CDs presents a major barrier to progress in this direction. This lack of consensus limits effective communication, data sharing, automation, and collaboration. To address this, a clear and extensible nomenclature for modified CDs is proposed. In this framework, GPUs are treated like amino-acid residues, with unsubstituted GPUs as reference building-blocks and substituted ones considered as mutations. This approach precisely defines substitution types and patterns, resolves cyclic permutation ambiguities, and offers versatility for both simple and complex modifications, including chiral center alterations and covalently linked CD oligomers. By introducing this standardized nomenclature, we aim to enhance molecular design, improve reproducibility, and streamline both experimental and computational research in the CD field.
引用
收藏
页数:13
相关论文
共 49 条
  • [1] Gromacs: High performance molecular simulations through multi-level parallelism from laptops to supercomputers
    Abraham, Mark James
    Murtola, Teemu
    Schulz, Roland
    Páll, Szilárd
    Smith, Jeremy C.
    Hess, Berk
    Lindah, Erik
    [J]. SoftwareX, 2015, 1-2 : 19 - 25
  • [2] Unraveling the molecular dynamics of sugammadex-rocuronium complexation: A blueprint for cyclodextrin drug design
    Anderson, Amelia
    Garcia-Fandino, Rebeca
    Pineiro, Angel
    O'Connor, Matthew S.
    [J]. CARBOHYDRATE POLYMERS, 2024, 334
  • [3] Cyclodextrins: Establishing building blocks for AI-driven drug design by determining affinity constants in silico
    Anderson, Amelia
    Pineiro, Angel
    Garcia-Fandino, Rebeca
    O'Connor, Matthew S.
    [J]. COMPUTATIONAL AND STRUCTURAL BIOTECHNOLOGY JOURNAL, 2024, 23 : 1117 - 1128
  • [4] Addressing the complexities in measuring cyclodextrin-sterol binding constants: A multidimensional study
    Anderson, Amelia M.
    Manet, Ilse
    Malanga, Milo
    Clemens, Daniel M.
    Sadrerafi, Keivan
    Pineiro, Angel
    Garcia-Fandino, Rebeca
    O'Connor, Matthew S.
    [J]. CARBOHYDRATE POLYMERS, 2024, 323
  • [5] Benigni R., Computational Characterisation of Chemicals and Datasets in Terms of Organic Functional Groups-a New Toxtree Rulebase, DOI [10.2788/33281, DOI 10.2788/33281]
  • [6] GROMACS - A MESSAGE-PASSING PARALLEL MOLECULAR-DYNAMICS IMPLEMENTATION
    BERENDSEN, HJC
    VANDERSPOEL, D
    VANDRUNEN, R
    [J]. COMPUTER PHYSICS COMMUNICATIONS, 1995, 91 (1-3) : 43 - 56
  • [7] The Protein Data Bank
    Berman, HM
    Westbrook, J
    Feng, Z
    Gilliland, G
    Bhat, TN
    Weissig, H
    Shindyalov, IN
    Bourne, PE
    [J]. NUCLEIC ACIDS RESEARCH, 2000, 28 (01) : 235 - 242
  • [8] Burnside W., 2012, Title: Theory of groups of finite order
  • [9] The AmberTools
    Case, David A.
    Aktulga, Hasan Metin
    Belfon, Kellon
    Cerutti, David S.
    Cisneros, G. Andres
    Cruzeiro, Vinicus Wilian D.
    Forouzesh, Negin
    Giese, Timothy J.
    Gotz, Andreas W.
    Gohlke, Holger
    Izadi, Saeed
    Kasavajhala, Koushik
    Kaymak, Mehmet C.
    King, Edward
    Kurtzman, Tom
    Lee, Tai-Sung
    Li, Pengfei
    Liu, Jian
    Luchko, Tyler
    Luo, Ray
    Manathunga, Madushanka
    Machado, Matias R.
    Nguyen, Hai Minh
    O'Hearn, Kurt A.
    Onufriev, Alexey V.
    Pan, Feng
    Pantano, Sergio
    Qi, Ruxi
    Rahnamoun, Ali
    Risheh, Ali
    Schott-Verdugo, Stephan
    Shajan, Akhil
    Swails, Jason
    Wang, Junmei
    Wei, Haixin
    Wu, Xiongwu
    Wu, Yongxian
    Zhang, Shi
    Zhao, Shiji
    Zhu, Qiang
    Cheatham, I. I. I. Thomas E.
    Roe, Daniel R.
    Roitberg, Adrian
    Simmerling, Carlos
    York, Darrin M.
    Nagan, Maria C.
    Merz, Jr Kenneth M.
    [J]. JOURNAL OF CHEMICAL INFORMATION AND MODELING, 2023, 63 (20) : 6183 - 6191
  • [10] Preparation and chromatographic evaluation of β-cyclodextrin derivative CSPs bearing substituted phenylcarbamate groups for HPLC
    Chen, Xing Juan
    Yang, Guang Lei
    Xu, Xiao Dong
    Sheng, Jin Jin
    Shen, Jun
    Dong, Hong Xing
    [J]. JOURNAL OF LIQUID CHROMATOGRAPHY & RELATED TECHNOLOGIES, 2016, 39 (14) : 647 - 657