利用宾汉方程的对抗训练确定无偏流变特性

IF 10.8 1区 工程技术 Q1 CONSTRUCTION & BUILDING TECHNOLOGY Cement & concrete composites Pub Date : 2025-01-21 DOI:10.1016/j.cemconcomp.2025.105943
In Kuk Kang , Tae Yong Shin , Jae Hong Kim
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引用次数: 0

摘要

通常采用Bingham模型来描述水泥基材料的流动,其屈服应力和塑性粘度等参数是用流变仪来测量的。然而,当流变仪采用不同的流变几何形状或测量方案时,流变测量不能为单一材料提供独特的宾厄姆参数。本研究构建了一个可以通过流变测量得到理想Bingham参数的模型。我们首先引入严格遵循Bingham方程的理想域的生成,然后通过对抗训练的无监督域自适应使得流变测量与理想Bingham参数匹配成为可能。该模型适用于砂浆样品测量的实验数据,其中单个样品的测量采用三种不同的测量方案进行。所得的(理想的)宾厄姆参数是相同的,无论使用的协议。
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Unbiased rheological properties determined by adversarial training with Bingham equation
The Bingham model is generally used to describe the flow of cement-based materials, and its parameters, such as yield stress and plastic viscosity, are measured using a rheometer. However, the rheological measurement does not provide the unique Bingham parameters for a single material when rheometers take different rheological geometries or measuring protocols. This study constructs a model that can yield the ideal Bingham parameters with the rheological measurement. We first introduce the generation of an ideal domain strictly following the Bingham equation, and then an unsupervised domain adaptation by adversarial training makes it possible to match the rheological measurement with the ideal Bingham parameters. The proposed model is applied to the experimental data measured with mortar samples, where the measurements for a single sample are conducted by three different measuring protocols. The resultant (ideal) Bingham parameters are identical regardless of the protocols used.
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来源期刊
Cement & concrete composites
Cement & concrete composites 工程技术-材料科学:复合
CiteScore
18.70
自引率
11.40%
发文量
459
审稿时长
65 days
期刊介绍: Cement & concrete composites focuses on advancements in cement-concrete composite technology and the production, use, and performance of cement-based construction materials. It covers a wide range of materials, including fiber-reinforced composites, polymer composites, ferrocement, and those incorporating special aggregates or waste materials. Major themes include microstructure, material properties, testing, durability, mechanics, modeling, design, fabrication, and practical applications. The journal welcomes papers on structural behavior, field studies, repair and maintenance, serviceability, and sustainability. It aims to enhance understanding, provide a platform for unconventional materials, promote low-cost energy-saving materials, and bridge the gap between materials science, engineering, and construction. Special issues on emerging topics are also published to encourage collaboration between materials scientists, engineers, designers, and fabricators.
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