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    <lastmod>2021-04-21</lastmod>
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      <image:title>Modeling biomaterials</image:title>
      <image:caption>Fig. 1 Microscopic structures of biomaterials influence their macroscopic functionalities.</image:caption>
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      <image:caption>Fig 2. Hydrogel microstructure and pattern geometry are optimized to achieve targeted properties.</image:caption>
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    <lastmod>2021-04-20</lastmod>
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      <image:title>Propagating fractures</image:title>
      <image:caption>Fig 1. Fractures are initialized at two different locations due to injected fluid pressure and merge with each other.</image:caption>
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      <image:title>Propagating fractures</image:title>
      <image:caption>Fig 2. Fracture propagates around a rigid area and then merges again.</image:caption>
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    <lastmod>2021-04-20</lastmod>
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      <image:title>Tracking shear bands</image:title>
      <image:caption>Fig 1. Shear band is often observed in ductile metallic materials as a precursor to failure.</image:caption>
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      <image:title>Tracking shear bands</image:title>
      <image:caption>Fig 2. Shear band continuously propagates inside the specimen after initialization.</image:caption>
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    <lastmod>2025-03-20</lastmod>
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    <loc>https://www.taojinlab.com/phase-field</loc>
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    <lastmod>2025-03-21</lastmod>
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      <image:title>Phase-field crack modeling</image:title>
      <image:caption>Fig 1. Crack propagation inside a material sample containing two rigid body inclusions. The L-BFGS monolithic solver combined with an adaptive mesh refinement technique makes the phase-field approach practical for 3D simulations.</image:caption>
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      <image:title>Phase-field crack modeling</image:title>
      <image:caption>Fig 2. Crack propagation inside a concrete beam under torsion. The crack surface represented by the phase-field is non-planar.</image:caption>
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