Drying of Foam under Microgravity Conditions

被引:0
|
作者
Nektaria Koursari
Omid Arjmandi-Tash
Anna Trybala
Victor M. Starov
机构
[1] Loughborough University,Department of Chemical Engineering
[2] University of Sheffield,Department of Chemical and Biological Engineering
来源
Microgravity Science and Technology | 2019年 / 31卷
关键词
Microgravity; Foam drying; Porous substrate; Capillarity;
D O I
暂无
中图分类号
学科分类号
摘要
Foams have recently been characterised as ideal products for pharmaceutical and topical use applications for the delivery of topical active agents. Foams are usually produced in a wet form but in a number of applications moderately dry foams are required. Drying of foam under terrestrial conditions proceeds under the action of gravity, which is impossible under microgravity condition. Below a new method of drying foams under microgravity condition is suggested. According to this method foam should be placed on a porous support, which will absorb the liquid from foam based on capillary forces only. The final liquid content inside the foam can be achieved by a proper selection of the porous support. The suggested method allows drying foams under microgravity conditions. Interaction of foams with porous support under terrestrial conditions was developed only recently and theoretically investigated (Arjmandi-Tash, O.; Kovalchuk, N.; Trybala, A.; Starov, V. Foam Drainage Placed on a Porous Substrate. Soft Matter2015, 11 (18), 3643–3652) followed by a theory of foam drainage on thin porous substrates (Koursari, N.; Arjmandi-Tash, O.; Johnson, P.; Trybala, A.; Starov, M. V. Foam Drainage Placed on Thin Porous Substrate. Soft Matter, 2019, (submitted)), where rate of drainage, radius of the wetted area inside the porous layer and other characteristics of the process were predicted. The latter model is modified below to investigate foam drying under microgravity conditions. Model predictions are compared with experimental observations for foam created using Triton X-100 at concentrations above CMC. Wetted radius inside the porous substrate was measured and results were compered to model predictions. Experimental observations for spreading area versus time show reasonable agreement with theoretical predictions for all investigated systems.
引用
收藏
页码:589 / 601
页数:12
相关论文
共 50 条
  • [21] Iron Burning in Pressurised Oxygen Under Microgravity Conditions
    N. R. Ward
    T. A. Steinberg
    Microgravity Science and Technology, 2009, 21 : 41 - 46
  • [22] An Analysis of Protein Crystals Grown under Microgravity Conditions
    Jackson, Keegan
    Hoff, Rebecca
    Wright, Hannah
    Wilkinson, Ashley
    Brewer, Frances
    Williams, Amari
    Whiteside, Ben
    Macbeth, Mark R.
    Wilson, Anne M.
    CRYSTALS, 2024, 14 (07)
  • [23] The role of autophagy during osteoclastogenesis under microgravity conditions
    Markolefa, Ioanna
    Lambrou, George I.
    INTERNATIONAL JOURNAL OF ASTROBIOLOGY, 2019, 18 (04) : 384 - 390
  • [24] Vegetative and reproductive growth of Arabidopsis under microgravity conditions in space
    Karahara, Ichirou
    Suto, Takamichi
    Yamaguchi, Takashi
    Yashiro, Umi
    Tamaoki, Daisuke
    Okamoto, Emi
    Yano, Sachiko
    Tanigaki, Fumiaki
    Shimazu, Toru
    Kasahara, Haruo
    Kasahara, Hirokazu
    Yamada, Mitsuhiro
    Hoson, Takayuki
    Soga, Kouichi
    Kamisaka, Seiichiro
    JOURNAL OF PLANT RESEARCH, 2020, 133 (04) : 571 - 585
  • [25] MATERIALS PROCESSING UNDER MICROGRAVITY CONDITIONS USING DROP TUBES
    CHATTOPADHYAY, K
    TIWARI, MK
    BULLETIN OF MATERIALS SCIENCE, 1992, 15 (02) : 91 - 110
  • [26] Convective boiling heat transfer under microgravity and hypergravity conditions
    Iceri, Daiane Mieko
    Zummo, Giuseppe
    Saraceno, Luca
    Ribatski, Gherhardt
    INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2020, 153 (153)
  • [27] Confined and unconfined nucleate boiling under terrestrial and microgravity conditions
    Souza, R. R.
    Passos, J. C.
    Cardoso, E. M.
    APPLIED THERMAL ENGINEERING, 2013, 51 (1-2) : 1290 - 1296
  • [28] Flow boiling in tube under normal gravity and microgravity conditions
    Narcy, Marine
    de Malmazet, Erik
    Colin, Catherine
    INTERNATIONAL JOURNAL OF MULTIPHASE FLOW, 2014, 60 : 50 - 63
  • [29] Instrument for Measuring the Body Mass of Astronauts Under Microgravity Conditions
    Fujii, Yusaku
    Shimada, Kazuhito
    Maru, Koichi
    MICROGRAVITY SCIENCE AND TECHNOLOGY, 2010, 22 (01) : 115 - 121
  • [30] GROWTH AND DIVISION OF ESCHERICHIA-COLI UNDER MICROGRAVITY CONDITIONS
    GASSET, G
    TIXADOR, R
    ECHE, B
    LAPCHINE, L
    MOATTI, N
    TOOROP, P
    WOLDRINGH, C
    RESEARCH IN MICROBIOLOGY, 1994, 145 (02) : 111 - 120