Ferozium | |
---|---|
Plates of Ferozium are resistant to energy attacks, but shatter under kinetic force. | |
Density | |
0.18 lb/in3 | |
Durability | |
~3 | |
Flexibility | |
Some wobble room, but not much at all. Glass. | |
Thermal Conductivity | |
Basically none. Repels and disperses heat. | |
Electrical Conductivity | |
Low, but there. | |
Average Price | |
0.16▣/in3 (refined), 0.11▣/in3 (unrefined) |
Ferozium is a metal characterized by its grey-blue hue and an unusual set of properties that set it apart from conventional materials. Notably, it exhibits low electrical and thermal conductivity. However, what truly distinguishes Ferozium is its unique ability to repel heat when present in a concentrated form. A thick layer of Ferozium can be highly resistant, if not entirely impervious, to direct heat exposure. This makes it an invaluable resource for applications requiring heat resistance or insulation.
Despite having a melting point roughly equivalent to Aegisalt's—around 1200 degrees Fahrenheit—it poses significant challenges when it comes to heating it to that temperature. As a result, specialized equipment is necessary for the proper manufacturing and shaping of Ferozium. High-powered induction heaters that allow no heat to escape are typically used in its production process. While the raw material itself is relatively affordable, the costs and complexities lie in its refinement. The energy and fuel expenditures required for manipulating Ferozium make it a resource-intensive endeavor, turning its forging into a highly specialized skill.
The name "Ferozium" has historical roots, originating from its inaugural application in the field of computing around the year 2600. It was initially employed as an experimental material in coolant systems, marking its entrance into the technological landscape.