Mix Design of Fly Ash and GGBS based Geopolymer Concrete activated with Water Glass

IF 1.5 0 ENGINEERING, MULTIDISCIPLINARY Engineering, Technology & Applied Science Research Pub Date : 2023-10-13 DOI:10.48084/etasr.6216
Rajashekar Sangi, Bollapragada Shesha Sreenivas, Kandukuri Shanker
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Abstract

Geopolymer Concrete (GPC) has emerged as an alternative to cement concrete due to its reduced carbon footprint and excellent mechanical properties. However, not much emphasis is made on the development of mix designs using industrial waste. The current study focuses on the mix-design considerations for GPC using fly ash and Ground Granulated Blast Furnace Slag (GGBS). The mix design of GPC involves in selecting materials to produce the desired strength. In this investigation, Water Glass (WG) is used as an activator for the activation of the polymerization reaction. The mix design of GPC is the optimization of a group of various parameters, such as the activator to binder ratio, aggregate to binder ratio, coarse aggregate to fine aggregate ratio, activator concentration, and amount of binder content. The activator to binder ratio affects workability and strength, while the activator concentration influences the polymerization reaction and final strength development. The selection of suitable aggregates plays a vital role in achieving a dense and durable GPC matrix. The mix design for GPC requires a holistic approach that considers the selection of appropriate binders, activators, and aggregates. Proper optimization of these factors can result in excellent strength and durability of the GPC and a reduced carbon footprint. Further research is needed to explore alternative binders, evaluate long-term performance, and establish standardized mix design guidelines for the widespread adoption of GPC in construction.
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水玻璃活化粉煤灰与GGBS基地聚合物混凝土配合比设计
地聚合物混凝土(GPC)因其减少碳足迹和优异的机械性能而成为水泥混凝土的替代品。然而,对利用工业废料开发混合料设计的重视程度并不高。目前的研究重点是粉煤灰与矿渣混合使用GPC的混合设计考虑。GPC的配合比设计涉及到材料的选择,以产生所需的强度。在本研究中,水玻璃(WG)作为活化剂用于聚合反应的活化。GPC的配合比设计是对活化剂与粘结剂比、骨料与粘结剂比、粗骨料与细骨料比、活化剂浓度、粘结剂掺量等一组参数进行优化。活化剂与粘结剂的比例影响和易性和强度,而活化剂的浓度影响聚合反应和最终强度的发展。选择合适的骨料对获得致密耐用的GPC基体起着至关重要的作用。混合设计的GPC需要一个整体的方法,考虑选择适当的粘合剂,活化剂和聚集体。这些因素的适当优化可以导致优异的强度和耐久性的GPC和减少碳足迹。需要进一步的研究来探索替代粘合剂,评估长期性能,并为在建筑中广泛采用GPC建立标准化的配合比设计指南。
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来源期刊
Engineering, Technology & Applied Science Research
Engineering, Technology & Applied Science Research ENGINEERING, MULTIDISCIPLINARY-
CiteScore
3.00
自引率
46.70%
发文量
222
审稿时长
11 weeks
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