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6 | 6 |
|
7 | 7 | <div class="gallery-grid"> |
8 | 8 | <!-- ── GIF / image cards ── --> |
| 9 | + <div class="gallery-card"> |
| 10 | + <div |
| 11 | + class="gallery-media" |
| 12 | + data-lightbox |
| 13 | + data-caption="Biomechanics – Mesh Implant" |
| 14 | + > |
| 15 | + <video autoplay loop muted playsinline aria-hidden="true"> |
| 16 | + <source |
| 17 | + src="../_static/img/biomechanics-mesh-implant.mp4" |
| 18 | + type="video/mp4" |
| 19 | + /> |
| 20 | + </video> |
| 21 | + </div> |
| 22 | + <div class="gallery-caption"> |
| 23 | + <strong>Biomechanics – Mesh Implant</strong> |
| 24 | + This PolyFEM simulation models the mechanical interaction between a |
| 25 | + surgical mesh implant and the surrounding soft tissue under tensile |
| 26 | + load. As the mesh is stretched, the visualization captures the |
| 27 | + resulting deformation and stress distribution within the connected |
| 28 | + tissue. It’s an essential look at how synthetic structures influence |
| 29 | + biological mechanics, ensuring stability and performance in |
| 30 | + biomechanical applications. |
| 31 | + </div> |
| 32 | + </div> |
| 33 | + |
| 34 | + <div class="gallery-card"> |
| 35 | + <div class="gallery-media" data-lightbox data-caption="Robotic Gripper"> |
| 36 | + <video autoplay loop muted playsinline aria-hidden="true"> |
| 37 | + <source src="../_static/img/grasp.mp4" type="video/mp4" /> |
| 38 | + </video> |
| 39 | + </div> |
| 40 | + <div class="gallery-caption"> |
| 41 | + <strong>Robotic Gripper</strong> |
| 42 | + This PolyFEM simulation highlights the interaction between a rigid |
| 43 | + object and high-compliance soft gripper pads. While the object |
| 44 | + remains relatively undeformed, the focus is on the large deformation |
| 45 | + of the pads as they conform to the complex geometry to create a |
| 46 | + secure, high-friction grip. It’s a great example of using localized |
| 47 | + soft-body mechanics to handle rigid components with stability. |
| 48 | + </div> |
| 49 | + </div> |
| 50 | + |
9 | 51 | <div class="gallery-card"> |
10 | 52 | <div class="gallery-media" data-lightbox data-caption="Trash Compactor"> |
11 | 53 | <video autoplay loop muted playsinline aria-hidden="true"> |
|
79 | 121 | complex, self-touching geometry with precision. |
80 | 122 | </div> |
81 | 123 | </div> |
82 | | - |
83 | | - <div class="gallery-card"> |
84 | | - <div |
85 | | - class="gallery-media" |
86 | | - data-lightbox |
87 | | - data-caption="Biomechanics – Mesh Implant" |
88 | | - > |
89 | | - <video autoplay loop muted playsinline aria-hidden="true"> |
90 | | - <source |
91 | | - src="../_static/img/biomechanics-mesh-implant.mp4" |
92 | | - type="video/mp4" |
93 | | - /> |
94 | | - </video> |
95 | | - </div> |
96 | | - <div class="gallery-caption"> |
97 | | - <strong>Biomechanics – Mesh Implant</strong> |
98 | | - This PolyFEM simulation models the mechanical interaction between a |
99 | | - surgical mesh implant and the surrounding soft tissue under tensile |
100 | | - load. As the mesh is stretched, the visualization captures the |
101 | | - resulting deformation and stress distribution within the connected |
102 | | - tissue. It’s an essential look at how synthetic structures influence |
103 | | - biological mechanics, ensuring stability and performance in |
104 | | - biomechanical applications. |
105 | | - </div> |
106 | | - </div> |
107 | 124 | </div> |
108 | 125 | <!-- /.gallery-grid --> |
109 | 126 |
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