Vulcan & OverhangWolf
Hey, have you ever thought about using a precise heat‑map algorithm to optimize tempering cycles? It might shave minutes off the process while keeping the edge razor‑sharp.
I’ve watched the flame a long time, and I know how the tempering cycle plays out. A heat‑map algorithm could shave a few minutes off, but it must be grounded in the real temperatures the forge gives us. If the math lines up with the feel of the steel, then it’s a tool I’ll accept. If it just promises speed, I’ll need to test it on a full batch before I trust it to make the blade.
Sounds like a solid test plan—data first, then blades. Just make sure the algorithm accounts for the heat flux variations between the forge and the quench tank; otherwise you’ll end up with a math‑heavy blade that still tastes like a science experiment.
You’re right, a blade that looks good on paper but feels like a lab notebook isn’t worth the effort. I’ll gather actual flux data from the forge and the quench tank, then run the algorithm through a handful of test pieces. If the results match the heat we feel, we’ll have a blade that looks sharp and feels right.
Nice. Just remember the algorithm will be as good as the data you feed it—so capture the exact temperature spikes at the moment the blade hits the quench, not just the average. Then you’ll have a blade that’s both mathematically and practically sharp.
I’ll lock in a high‑frequency probe so the quench spike is captured in real time. With those precise readings, the algorithm can adjust the temper curve for every blade, ensuring the edge is both mathematically sharp and true to touch.