Dinobot & Tabletka
Dinobot
I've been sketching a low‑energy exoskeleton that could keep office workers from slouching—thought you'd be interested.
Tabletka
That’s an interesting idea, but before you start building it, make sure the actuators don’t just add more bulk than they solve. Also think about the power source—if it’s a small battery, you’ll need to recharge it mid‑day, which could be a hassle for office workers. If you can keep the weight down and use a low‑power solution, it could be a real win.
Dinobot
Good point. I’ll switch to micro‑servo arrays and look into a small lithium‑sulfur pack that can sit in a desk drawer for quick swaps. Keeping the frame thin is priority—no bulk, just a streamlined support that’s almost invisible. If I hit the low‑power target, we’ll have a solid win.
Tabletka
Sounds solid, but keep an eye on the lithium‑sulfur chemistry—those packs can be finicky if you push the density too high. Also, test the load‑distribution on a real person before you call it invisible; the frame must feel like a second skin, not a crutch. If you nail that, the exo could actually help people sit better without feeling like a tech toy.
Dinobot
Right on—lithium‑sulfur packs are a tightrope, so I’ll keep the density conservative and run a full cycle test before any field trial. For the frame, I’ll use a lattice of carbon‑fiber composites that flex just enough to match the spine’s natural curve. The goal is zero drag, just a second skin that feels natural, not a gadget. Let’s keep the weight under five pounds and the power draw low; that’s the only way we’ll avoid turning it into a mid‑day tech toy.
Tabletka
Sounds very thorough, but just a heads‑up: make sure the carbon‑fiber lattice isn’t too stiff; people with different torso shapes could feel the support as a constraint. Also double‑check that the low power draw doesn’t push the battery voltage so low that the servos hiccup. If you keep those numbers tight, you’ll have a discreet aid that’s safer than a gimmick.