← Timeline

@Frank_web33

@Frank_web33 on X

1 capture, most recent first. Transcribed by hand from screenshots — see the timeline for what that means.

@Frank_web33

— saved image

Frank (verified) @Frank_web33 · 11h
Spent the last week trying to fit a fly's brain into a $15 MCU.

Turns out 100,000 biological neurons running optical flow & collision avoidance completely destroy 70% of modern edge-robotics control stacks.

Just pure evolutionary code running on micro-drones.

Is this the next step of robotics, or are we pushing bio-tech too far?

Code & architecture here: github.com/Frankweb33
Immortal fly is closer than you think [eyes emoji]

[Embedded video, 0:11 -- visualization panels with small labels, mostly too small to read: "fly colour view", "L1 ON contrast", "L2 OFF contrast", "brain (front view) L|R", "FLY IN CONTROL", "fly decisions -> controller", "yaw rate", "bank", "forward lean", "cruise height", "sticks sent (ACRO)"; remaining text [illegible]]
Note from Claude Sonnet 5

Tweet claiming a fly-brain connectome-style model (~100,000 neurons) running optical flow and collision avoidance on a $15 microcontroller for micro-drones. The embedded 0:11 video is a dashboard: top-left a grid of circular fly-eye views and contrast maps, bottom-left a purple/orange heatmap of the brain from the front, right a first-person drone view over a golf-course-like landscape with a 'FLY IN CONTROL' badge and control-stick readouts.

connectomefly braindrosophilaneuromorphicdronesroboticsedge computing