At a larger scale, material deformation and rotation are measured within small sub-regions of material, and the material deformation can be attributed to separate contributions of contact rolling, contact deformation, and the rigid-rotation of particle pairs.
The approaches employed can easily be adapted for large-scale materials screening procedures.
For example, a typical TALE nuclease requires two new protein coding regions, each containing about 2000 base pairs, to be synthesized for each new target site, and the highest-throughput TALE assembly systems require large-scale material preparation and robotics for automation.
Therefore, these results can be applied to a large scale of materials.
Accordingly, many large scale biobanks collect materials prospectively – they do not state the type of research the materials will be used for at the moment of collection.
Mushroom production is a good example of recovery of food proteins by using biological process in a small or large scale from lignocellulosic materials (Chiu and Moore 2001).
The control over molecular behavior, such as variations in crystal morphology and the crystal growth kinetics of crystals has promising implications for large scale processing of materials in industry.
The two main challenges of nanomaterials in biological applications are toxicity of the material and large scale manufacturing of those materials.
Furthermore, these materials can be produced in large scale from various biomass materials, and thus could be an excellent choice of the high performance materials required in the increasing important supercapacitor industry.
This work paves a low-cost way for large scale production of electrode materials for commercial supercapacitors.
Other important examples are gas explosions and large scale dispersion of hazardous materials in urban places, cities or underground involving obstacles such as buildings and various infrastructures.
