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Engineering
シンクロトロンX線マイクロ断層撮影によるせん断下の粒状土壌の故障の可視化と関連する粒状土壌の機械的...
シンクロトロンX線マイクロ断層撮影によるせん断下の粒状土壌の故障の可視化と関連する粒状土壌の機械的...
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Engineering
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JoVE Journal Engineering
Visualization of Failure and the Associated Grain-Scale Mechanical Behavior of Granular Soils under Shear using Synchrotron X-Ray Micro-Tomography

シンクロトロンX線マイクロ断層撮影によるせん断下の粒状土壌の故障の可視化と関連する粒状土壌の機械的挙動

Full Text
13,828 Views
09:00 min
September 29, 2019

DOI: 10.3791/60322-v

Zhuang Cheng1, Jianfeng Wang1,2

1Department of Architecture and Civil Engineering,City University of Hong Kong, 2Shenzhen Research Institute of City University of Hong Kong

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Overview

This protocol allows for the acquisition of high-spatial resolution computed tomography (CT) images of granular soils during triaxial compression. It explores the grain-scale mechanical behavior of the soil under loading through advanced image processing techniques.

Key Study Components

Area of Science

  • Granular soil mechanics
  • Image processing techniques
  • Micro-tomography applications

Background

  • Understanding micro-scale processes in granular materials.
  • Importance of particle morphology and microstructure.
  • Applications to various stone-based materials.
  • Need for precise experimental design.

Purpose of Study

  • To acquire particle scale data of granular soils.
  • To investigate mechanical behavior under loading.
  • To enhance understanding of deformation mechanisms.

Methods Used

  • X-ray micro-tomography for imaging.
  • Triaxial compression testing of soil samples.
  • Image processing for data analysis.
  • Preparation of soil samples with specific parameters.

Main Results

  • Detailed insights into particle behavior during deformation.
  • Access to comprehensive particle scale information.
  • Observations on breakage, displacement, and rotation.
  • Potential applications to other materials like concrete and ceramics.

Conclusions

  • The method provides valuable data for understanding granular materials.
  • It can be adapted for various types of materials beyond soil.
  • Future research can build on these findings for broader applications.

Frequently Asked Questions

What is the main advantage of using x-ray micro-tomography?
It provides full access to particle scale information, including morphology and microstructure.
What types of materials can this method be applied to?
It can be used for rocks, concrete, ceramics, asphalt, and polymer composites.
How should the soil sample be prepared?
Add silicone grease around the lateral surface of the top end of the base plate.
What is the significance of understanding micro-scale processes?
It helps in comprehending the mechanical behavior of granular materials under various conditions.
What experimental design considerations are important?
Determine test material, particle size, sample size, and initial porosity in advance.

このプロトコルは、三軸圧縮時に粒状土壌の高空間分解能コンピュータ断層撮影(CT)画像を取得し、これらのCT画像に画像処理技術を適用して、粒状の機械的挙動を探索する手順を説明する。積み込み中の土壌。

このプロトコルは、X線マイクロ断層撮影を用いて粒状土の粒状スケールデータを取得し、粒状物質の微視的挙動の基礎となる微小なプロセスとメカニズムの理解を深めることができる。この技術の主な利点は、粒状材料の変形内の粒子形態、微細構造、破損、変位、および回転を含む粒状土壌の粒子スケール情報への完全なアクセスを提供することです。この方法は、岩石、土壌岩混合物、コンクリート、セラミックス、アスファルト、さらにはポリマー複合材料などの他のタイプの石ベースの天然または合成材料の調査にも適用できます。

テキストプロトコルに記載されているように、実験の設計を事前に十分に開始します。試験材料、粒子径、サンプルサイズ、サンプル初期空隙率を決定します。基板上に土壌サンプルを調製するには、まずベースプレートの上端の側面の周りに少量のシリコーングリースを追加します。

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