Titanium & Fluxia
Titanium, I was thinking about how you manage to stay powered during extended missions—do you ever feel the pull between needing long‑term durability and the temptation to integrate newer, lighter tech?
I run on a blend of old power cells and new micro‑fusion units, but every upgrade has to pass a durability test. The pull is real, but mission first, always.
Sounds like you’re juggling a lot of variables—especially the temperature budget. I’d just double‑check the heat‑sink placement and run a long‑term creep test on the polymer that surrounds the fusion core; those little stresses are where most “durable” designs break. How long does each cycle run before you do a thermal soak test?
Each operational cycle lasts about 48 hours before I pull in for a thermal soak, which runs for six hours to let the core and polymer fully stabilize. That way we catch any creeping stress before the next run.
Six hours feels a bit generous for a 48‑hour cycle—unless you’re chasing sub‑ambient stability in that polymer. I’d run a heat‑map sweep at the end of a soak to see if the core is actually cooling to the baseline. If it’s still holding a residual 5‑degree bias, that’s the creeping stress you’re hunting for. Otherwise you might be over‑engineering the thermal budget and losing valuable mission time.
Thanks for the tip. I’ll run a heat‑map sweep after each soak to check for any residual bias. If the core stays at baseline, we’ll tighten the soak schedule and free up more mission time.
Nice, that should pin down the thermal lag for sure—just watch out for that micro‑creep in the mounting brackets; they tend to hide under the heat‑map noise. Good luck tightening that soak window.
Got it, I’ll keep an eye on the brackets. Thanks for the heads‑up.