Difference between revisions of "Shared:G3P5"

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===Design Strategies===
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<h2>Design Concept</h2>
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===Pattern Simulation Animation===
  
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Various patterns relevant to our design concept are tested using Houdini FX and its intergrated physics simulators. The animations bellow present the results of the bending simulations when material properties are applied to the geometry.  
 
Various patterns relevant to our design concept are tested using Houdini FX and its intergrated physics simulators. The animations bellow present the results of the bending simulations when material properties are applied to the geometry.  
  
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Simulation 05 is a combination of the above experimentations. The voronoid pattern is concentrated towards the bending point, which provides durability and strengthier connection with the panel
 
Simulation 05 is a combination of the above experimentations. The voronoid pattern is concentrated towards the bending point, which provides durability and strengthier connection with the panel
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===Design Concept===
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[[File:Robotic Building W2G2 Page 38.jpg]]
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[[File:Robotic Building W2G2 Page 39.jpg]]
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[[File:Robotic Building W2G2 Page 40.jpg]]
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====Algorithm Animations====
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Soon in the design phase we realized that we are creating a flexible transparent hinge design.
  
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Next step in the design process is the design of the pattern onto the panel. A common issue that we had during the prototype_00 process was the durability of the silicon connection between the panels. The connection was sometimes weak, and the silicon tended to either break at points or disconnect from the EPS panel. It is worth mentioning, however, that none of the connections failed.
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[[File:Robotic Building W2G2 Page 38.jpg|800px]]
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[[File:Robotic Building W2G2 Page 39.jpg|800px]]
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The adhesive properties of silicon along with friction allowed a rigid yet flexible connection between the panels. However, we realized that sharp corners tended to rip the silicon apart.
  
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[[File:Robotic Building W2G2 Page 40.jpg|800px]]
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The next step was to computationally design a pattern that would avoid sharp curves and grow organically on the panel itself.  
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<Elaborate on pattern>
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<-transparency-porosity-tree growth-crystal growth-fractal>
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  <p>Lorem ipsum dolor sit amet, consectetur adipisicing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat.</p>
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// Pattern Growth Algorithm Animation
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// Pattern Growth on Module Algorithm Animation
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// Toolpath Optimization Algorithm Animation
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Revision as of 17:02, 8 May 2018

DIA3+TUD2

Sample.png

Sophia - Karim - Shervin - Angelos - Adib - Mohamed - E - Ahmed - Mhun -



Design Strategies



Pattern Simulation Animation

Various patterns relevant to our design concept are tested using Houdini FX and its intergrated physics simulators. The animations bellow present the results of the bending simulations when material properties are applied to the geometry.


Simulation 01 is a basic pattern that allows the understanding of the bending principles. the bending points are distributed in an exponential manner, with zero being the midpoint.

Following the logic from above Simulation 02 shows that the voronoid pattern can provide different bending results based on the testellation of the pattern. In this particular instace, voronoid shapes are applied in a gradient where the closer to the midpoint the larger the concentrattion of smaller voronoids. This testellation provides a controllable bending point.

Simulation 03 depicts a diamond pattern with its long side arranged vertical to the bending midpoint curve. Hence, bending is restricted.

Simulation 04 shows the same patterns arranged with its lond side parallel to the bending midpoint curve. Consequently, bending is allowed to a greater degree than simulation 03. It follows that the pattern orientation affects the bending properties of the material.
Simulation 05 is a combination of the above experimentations. The voronoid pattern is concentrated towards the bending point, which provides durability and strengthier connection with the panel

===Design Concept===
[[File:Robotic Building W2G2 Page 38.jpg]] [[File:Robotic Building W2G2 Page 39.jpg]] [[File:Robotic Building W2G2 Page 40.jpg]]
====Algorithm Animations====
Soon in the design phase we realized that we are creating a flexible transparent hinge design. Next step in the design process is the design of the pattern onto the panel. A common issue that we had during the prototype_00 process was the durability of the silicon connection between the panels. The connection was sometimes weak, and the silicon tended to either break at points or disconnect from the EPS panel. It is worth mentioning, however, that none of the connections failed. The adhesive properties of silicon along with friction allowed a rigid yet flexible connection between the panels. However, we realized that sharp corners tended to rip the silicon apart. The next step was to computationally design a pattern that would avoid sharp curves and grow organically on the panel itself. <-transparency-porosity-tree growth-crystal growth-fractal> // Pattern Growth Algorithm Animation

// Pattern Growth on Module Algorithm Animation

// Toolpath Optimization Algorithm Animation

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