Molecular dynamics simulations of liquid crystal molecules at an air-water interface

被引:0
作者
Yoneya, M
Aoki, KM
Tabe, Y
Yokoyama, H
机构
[1] Japan Sci & Technol Corp, ERATO, Yokoyama Nano Struct Liquid Crystal Project, Tsukuba, Ibaraki 3002635, Japan
[2] AIST, Nanotechnol Res Inst, Tsukuba, Ibaraki 3058568, Japan
来源
MOLECULAR CRYSTALS AND LIQUID CRYSTALS | 2004年 / 413卷
关键词
amphiphile; Langmuir monolayer; molecular simulation;
D O I
10.1080/15421400490437196
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Molecular dynamics simulations were done for terminally alkyl and alkoxy substituted azobenzene liquid crystal (LC) molecules at an air-water interface using realistic (LC and water) molecular models. The simulation result were compared with those of a corresponding amphiphilic modification, i.e. terminal omega-carboxyalkoxy substituted azobenzene. Comparison with a LC with a different mesogen core, phenylpyrimidine, was also made. The interaction energetics were found to be more or less similar both in the alkyl and alkoxy terminated azobenzene and its amphiphilic modification, i.e. cohesive energy dominated over adhesive energy. In contrast, a large difference was found between alkyl and alkoxy terminated azobenzene and phenylpyrimidine LCs; cohesive and adhesive energy contributions were competitive in the latter molecule.
引用
收藏
页码:2297 / 2305
页数:9
相关论文
共 50 条
  • [31] Robust Gold Nanoparticle Sheets by Ligand Cross-Linking at the Air-Water Interface
    Kosif, Irem
    Kratz, Katrina
    You, Siheng Sean
    Bera, Mrinal K.
    Kim, Kyungil
    Leahy, Brian
    Emrick, Todd
    Lee, Ka Yee C.
    Lin, Binhua
    ACS NANO, 2017, 11 (02) : 1292 - 1300
  • [32] Alteration of surface pressure of macromolecular monolayer at the air-water interface and electrochemical impedance characteristics
    Dhopte, Balaji
    Lad, V. N.
    COLLOIDS AND SURFACES B-BIOINTERFACES, 2020, 187
  • [33] Two-Dimensional Aggregation of Crown-Phthalocyanine Ligand at Air-Water Interface
    Shokurov, A. V.
    Selektor, S. L.
    Arslanov, V. V.
    Karpacheva, M. I.
    Gagina, I. A.
    Gorbunova, Yu G.
    Tsivadze, A. Yu
    MACROHETEROCYCLES, 2012, 5 (4-5): : 358 - 365
  • [34] Study of an Imidazole Derivative Mixed with Fatty Acid at Air-Water Interface and in Ultrathin Films
    Dey, Bapi
    Debnath, P.
    Bhattacharjee, D.
    Majumdar, S.
    Hussain, Syed Arshad
    MATERIALS TODAY-PROCEEDINGS, 2018, 5 (01) : 2287 - 2294
  • [35] Interaction of testosterone-based compounds with dodecyl sulphate monolayers at the air-water interface
    Allen, Daniel T.
    Damestani, Nikou
    Saaka, Yussif
    Lawrence, M. Jayne
    Lorenz, Christian D.
    PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 2018, 20 (13) : 8790 - 8801
  • [36] Phase transition in adsorption layers at the air-water interface: structure features of the condensed phase
    Vollhardt, D
    Melzer, V
    Fainerman, V
    THIN SOLID FILMS, 1998, 327 : 842 - 845
  • [37] Folding of cytosine-based nucleolipid monolayer by guanine recognition at the air-water interface
    Argudo, Pablo G.
    Munoz, Eulogia
    Jose Giner-Casares, Juan
    Teresa Martin-Romero, Maria
    Camacho, Luis
    JOURNAL OF COLLOID AND INTERFACE SCIENCE, 2019, 537 : 694 - 703
  • [38] Adsorption of a phospholipid-hydroperoxide glutathione peroxidase into phospholipid monolayers at the air-water interface
    Morandat, S
    Bortolato, M
    Nicol, F
    Arthur, JR
    Chauvet, JP
    Roux, B
    COLLOIDS AND SURFACES B-BIOINTERFACES, 2004, 35 (02) : 99 - 105
  • [39] Albumin binding and insertion into PS-b-PEO monolayers at air-water interface
    Hlady, Vladimir
    Jogikalmath, Gangadhar
    COLLOIDS AND SURFACES B-BIOINTERFACES, 2007, 54 (02) : 179 - 187
  • [40] Self-Assembly of Graphene Oxide Nanoflakes in a Lipid Monolayer at the Air-Water Interface
    Mandal, Priya
    Giri, Rajendra P.
    Murphy, Bridget M.
    Ghosh, Sajal K.
    ACS APPLIED MATERIALS & INTERFACES, 2021, 13 (48) : 57023 - 57035