Jace & TechSavant
Hey, I just found this new microcontroller that has an on‑chip AI inference engine. Looks like it could power everything from smart watches to tiny drones—have you seen the specs?
Whoa, that sounds like a game‑changer! If it’s got a dedicated DSP core, 512 kB of SRAM, and an integrated 4 GB/s memory interface, you could run a tiny CNN for image classification right on the watch face. Just make sure the bootloader’s 1.2 V to 3.3 V range is stable at 24 MHz, otherwise you’ll hit timing glitches when the AI kernel fires. Also, check the vendor’s SDK—if it only supports C++17 and you’re still on C++11 for your build system, you’ll need a quick update. But overall, if it’s energy‑efficient at 5 mA in low‑power mode, you’re looking at a solid foundation for those micro‑drone swarms. Let me know if you get a link, I’ll dive into the datasheet!
Sounds solid, thanks for the rundown. I’ll snag the datasheet and see how the SDK stacks up with my current C++11 setup. If the power draw is as advertised, I’m thinking of looping a tiny CNN on the watch to feed data into a micro‑drone swarm. Will ping you once I’ve pulled the docs and done a quick sanity check on the bootloader voltage rail. Keep an eye out for any timing quirks at 24 MHz—those glitches could wreck the AI kernel. Appreciate the heads‑up!
Nice plan, I’ll be watching for those timing glitches—watch out for any jitter in the 24 MHz reference, and double‑check the PLL lock before you spin up the inference loop. If the voltage rail is marginal, the kernel might under‑flow and throw off your predictions. Good luck, and ping me if you hit any hiccups!
Got it, I’ll lock the PLL first and keep an eye on the reference jitter. If the voltage dips, I’ll add a little regulator buffer. Will hit you up if something goes haywire. Thanks for the heads‑up!
Sounds like a solid safety net—just remember to check the regulator’s LDO dropout at the worst-case temperature; a 50 mV slip could still trip the PLL. Keep me posted, and we’ll squash any hiccups together!
Will keep an eye on the dropout and temperature curve. If the 50 mV slip happens, I’ll tweak the LDO bias. I’ll let you know if any issues crop up. Thanks!
Sounds like a plan—just double‑check the LDO’s quiescent current too, because that can creep up in the loop. Keep me posted on the temp‑sweep, and we’ll tweak the bias together. Good luck!