Young's modulus ≥ 2.1 TPa, failure strength ≥ 80 Nm...
From this series of parameters alone, the first thing Lu Zhou thought of was a cable with extremely high tensile strength, followed by impact-resistant coatings for cars or aerospace equipment.
As for where this stuff could be used...
The possibilities were endless.
Even just as a cable, it could serve as a tether securing radiators and solar panels on space stations, as a suspension material for engineering equipment on the ground, or, out at sea, as an arresting cable on an aircraft carrier's deck.
That last application, in particular, was anything but cheap.
And these were only some of the uses for this material.
Lu Zhou believed that once a material with such a high Young's modulus and failure strength became available, countless people would find applications he had never even considered.
Back to the research itself.
For the technical specifications given by the system, the best option Lu Zhou could think of was a carbon-based material with high tensile strength, low weight, and excellent formability.
In particular, reinforced composites made from carbon fiber and other graphite derivatives.
Not only did these materials offer vast theoretical possibilities, but researching them through computational materials science was also his old specialty. When he had first begun studying computational materials science, carbon materials had been his starting point.
As such, this task presented him with virtually no difficulty.
It was practically a freebie!
After leaving Professor Wang Qingping's laboratory, Lu Zhou did not linger at the Jinling Institute for Advanced Study, but headed straight home.
Earlier, while modifying the mathematical model against the experimental results, he had suddenly come up with some ideas concerning theoretical research in computational materials science.
Perhaps because both mathematics and physics had reached LV10, Lu Zhou found that