Cerulium | |
---|---|
The molecular buildup of Cerulium is responsible for its EMP-proof effects. | |
Density | |
0.20 lb/in3 | |
Durability | |
~5 | |
Flexibility | |
Ductile, but less so than Durasteel. Prone to cracking. | |
Thermal Conductivity | |
Low, but there. | |
Electrical Conductivity | |
High. | |
Average Price | |
0.05 ▣/in3 |
Cerulium stands out as a metal with extraordinarily unique properties, primarily its capacity to function both as an antenna and a noise-canceller for electromagnetic or gamma-ray pulses. This dual functionality makes Cerulium an unparalleled choice for radiation shielding. Its specialized lattice structure enables it to absorb incoming electromagnetic pulses and emit a counter-signal that effectively nullifies the pulse's impact.
While Cerulium excels in mitigating electromagnetic disturbances and high radiation levels, it has its limitations in terms of durability. The material is somewhat fragile and is best suited for static or low-gravity environments like spacecraft or buildings. For more dynamic applications, traditional electromagnetic pulse shielding methods, such as isolated-sheet protection, are often preferred.
Cerulium boasts a high melting point of around 3000 degrees Fahrenheit and has a relatively low thermal conductivity, making it slow to heat up. Although it can serve as an alternative to Ferozium in heat-resistance applications, it lacks Ferozium's unique heat-repelling characteristics. As a result, penetrating Cerulium with heat-based weaponry is challenging but not as formidable a task as with Ferozium.