Integrated Computational Materials Engineering With Reliability Of Green Concrete (GC) For Environmental Safety Buildings

被引:0
|
作者
Bajad, Mohankumar N. [1 ]
机构
[1] STESs SCOE, DoCE, Pune, Maharashtra, India
来源
关键词
Bottom ash; Compressive strength; Durability; Drying shrinkage; Green concrete; BOTTOM ASH; DRYING SHRINKAGE; STRENGTH;
D O I
10.6180/jase.202310_26(10).0006
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The compelling usage of left-over constituents of warm force stations, for example, fly debris and bottom ash (BA) as halfway substitution to cement and fine aggregate (FA) in concrete diminish transfer issues. In this examination, the BA is exploited to supplant the normal stream sand up to 100% and in this manner, it diminishes the practice of waterway sand and reuse of BA in concrete which is eco-friendly and can be called green concrete (GC). In comparison to regular concrete, this concrete utilises less energy during production and emits less carbon dioxide. The most significant overseeing factor that decides the oldness of the concrete structure is durability.BA is utilized as FA (30%, 60% and 100%) in concrete to lessen its ecological contamination (air, land, and water) and to ration characteristic waterway sand which is misused for development. GC comprising BA is intended for 30 MPa with fixed water to fastener proportion and slump esteem; and is assessed for, compressive strength, and elastic modulus. elongated term drying shrinkage (DS) was assessed for 365 days and an experimental relationship was created to foresee 10 years of DS of GC. Test outcome shows that 30% BA came about high compressive strength and elastic modulus than control blend at 90 days. The DS property of BA came about better and even prevalent execution for long term durability. The test examination additionally infers that GC comprising 30% of BA for FA substitution beats control concrete for the structured strength of 30 MPa at 90 days and anticipated DS for extended term durability provided that 10 years. Keywords: bottom ash; compressive strength; durability; drying shrinkage; green concrete.
引用
收藏
页码:1409 / 1416
页数:8
相关论文
共 50 条
  • [31] Integrated Computational Materials Engineering: A Multi-Scale Approach
    [J]. Chopra, Nitin, 1600, Minerals, Metals and Materials Society, 184 Thorn Hill Road, Warrendale, PA 15086, United States (67):
  • [32] Integrated Computational Materials Engineering: A Multi-Scale Approach
    Nitin Chopra
    [J]. JOM, 2015, 67 : 118 - 119
  • [33] Integrated Computational Materials Engineering for Magnesium in Automotive Body Applications
    Allison, John E.
    Liu, Baicheng
    Boyle, Kevin P.
    Hector, Lou, Jr.
    McCune, Robert
    [J]. MAGNESIUM TECHNOLOGY 2010, 2010, : 35 - +
  • [34] Integrated Computational Materials Engineering: Tools, Simulations and New Applications
    Madison, Jonathan D.
    [J]. JOM, 2016, 68 (05) : 1376 - 1377
  • [35] Integrated Computational Materials Engineering in Solar Plants: The Virtual Materials Design Project
    Montero-Chacon, Francisco
    Chiumenti, Michele
    Segurado, Javier
    Doblare, Manuel
    [J]. JOM, 2018, 70 (09) : 1659 - 1669
  • [36] Integrated Computational Materials Engineering in Solar Plants: The Virtual Materials Design Project
    Francisco Montero-Chacón
    Michele Chiumenti
    Javier Segurado
    Manuel Doblaré
    [J]. JOM, 2018, 70 : 1659 - 1669
  • [37] CALPHAD-Based Integrated Computational Materials Engineering Research for Materials Genomic Design
    Wei Xiong
    [J]. JOM, 2015, 67 : 1864 - 1865
  • [38] CALPHAD-Based Integrated Computational Materials Engineering Research for Materials Genomic Design
    Xiong, Wei
    [J]. JOM, 2015, 67 (08) : 1864 - 1865
  • [39] Integrated Computational Materials Engineering: Extending from Design to Supply Management
    Goutam Mohapatra
    Rohit Mishra
    Satyam S. Sahay
    [J]. Transactions of the Indian Institute of Metals, 2019, 72 : 2187 - 2197