It seems that way, yeah. According to one of the reference links, they basically heat it up fast (because it's so thin) and then it does what steel does, and forms austentite. But then they can cool it so fast it mostly goes back to martensite (very normal) but also it says that it keeps some bainite and, interestingly, carbide. My company specifically works with tungsten carbide overlays for wear resistance so I've seen a lot on carbide, and it can do some of the things they're reporting - only it's usually difficult to do.Lethos said:So is this article just sensationalism then? If I understood what you said, then this process only works on a small amount of applications.Wolfram01 said:I've been working in a mettalurgy lab the last 2 years... I've seen things, man.
EDIT: Ok talked to a couple people and checked out their website. Basically it looks like they're only doing this on steel under 10mm thick... which is garbage and useless for so many applications. Essentially they're just doing a surface hardening, except it's so thin it works right through the entire thickness. We heat treat steel up to 3.5" thick (~100mm), so this process simply can not work.
Anyway, it's probably just a tweaked chemistry and the fast heat treat process gives a somewhat unique result. I mean it's good for some applications (they mention forming some car parts out of thinner steel) but it's not going to change the world. I think clear aluminum is much cooler