The characterisation of cementitious insitu stabilised pavement materials: The past, the present and the future

被引:0
|
作者
White, Greg [1 ]
Gnanendran, Carthigesu [1 ]
机构
[1] GHD Pty Ltd - Canberra Office
来源
Road and Transport Research | 2002年 / 11卷 / 04期
关键词
Binders - Cements - Fatigue of materials - History - Materials testing - Mathematical models - Stabilization;
D O I
暂无
中图分类号
学科分类号
摘要
Insitu stabilisation of pavement materials with cementitious binders is a well-recognised method of rehabilitating pavements for local roads and highways. Since its introduction in Australia in the 1950s, this technology has seen a broadening of the materials available for use as binders, the introduction of machinery capable of more accurately spreading and dosing binders, the development of large stabilisers and compaction equipment allowing deep-lift stabilisation and advances in material testing apparatus. The expected future development for this technology lies in the methods and protocols for the characterization of the stabilised materials for pavement design purposes. This paper presents the benefits of insitu stabilisation as well as a brief history of the stabilisation technology, and outlines the construction techniques commonly used for insitu stabilisation processes. The various binders available for stabilisation and the characterisation of stabilised pavement materials are also discussed. Finally, the paper presents the expected future developments for the insitu stabilisation industry recommends that future research focuses on standardising sample preparation and test methods as well as on the development of fatigue-life models applicable to materials stabilised with slow-setting cementitious binders.
引用
收藏
页码:56 / 69
相关论文
共 50 条
  • [21] Bone fusion materials: past, present, and future
    Kim, Young-Hoon
    Kim, Ki-Won
    Rhyu, Kee-Won
    Park, Jong-Beom
    Shin, Jae-Hyuk
    Kim, Young-Yul
    Lee, Jun-Seok
    Ahn, Joong-Hyun
    Ryu, Ji-Hyun
    Park, Hyung-Youl
    Kim, Sang-Il
    ASIAN SPINE JOURNAL, 2025,
  • [22] Characterization of porous materials: past, present and future
    Sing, KSW
    COLLOIDS AND SURFACES A-PHYSICOCHEMICAL AND ENGINEERING ASPECTS, 2004, 241 (1-3) : 3 - 7
  • [23] Thermoelectric materials developments: past, present, and future
    Mori, Takao
    Maignan, Antoine
    SCIENCE AND TECHNOLOGY OF ADVANCED MATERIALS, 2021, 22 (01) : 998 - 999
  • [24] Polysiloxane as icephobic materials - The past, present and the future
    Zhuo, Yizhi
    Xiao, Senbo
    Amirfazli, Alidad
    He, Jianying
    Zhang, Zhiliang
    CHEMICAL ENGINEERING JOURNAL, 2021, 405 (405)
  • [25] Epilogue: Superconducting materials past, present and future
    Chu, C. W.
    Canfield, P. C.
    Dynes, R. C.
    Fisk, Z.
    Batlogg, B.
    Deutscher, G.
    Geballe, T. H.
    Zhao, Z. X.
    Greene, R. L.
    Hosono, H.
    Maple, M. B.
    PHYSICA C-SUPERCONDUCTIVITY AND ITS APPLICATIONS, 2015, 514 : 437 - 443
  • [26] ENGINEERING MATERIALS - PAST, PRESENT AND FUTURE.
    Hart, Stewart
    South African mechanical engineer, 1987, 37 (01): : 13 - 17
  • [27] Nanoindentation in materials research: Past, present, and future
    Oliver, Warren C.
    Pharr, George M.
    MRS BULLETIN, 2010, 35 (11) : 897 - 907
  • [28] Nanoindentation in materials research: Past, present, and future
    Warren C. Oliver
    George M. Pharr
    MRS Bulletin, 2010, 35 : 897 - 907
  • [29] Materials for Hydrogen Storage: Past, Present, and Future
    Jena, Puru
    JOURNAL OF PHYSICAL CHEMISTRY LETTERS, 2011, 2 (03): : 206 - 211
  • [30] Graphene based materials: Past, present and future
    Singh, Virendra
    Joung, Daeha
    Zhai, Lei
    Das, Soumen
    Khondaker, Saiful I.
    Seal, Sudipta
    PROGRESS IN MATERIALS SCIENCE, 2011, 56 (08) : 1178 - 1271