When we started Yantrax, we faced a critical choice: cloud-based AI or edge computing? The answer became clear
when we realized museums need robots that work without internet. Here's how we settled on the Jetson Orin Nano
and what it taught us about offline inference at scale.
Building a robot's navigation stack is like building a plane—you can't debug it mid-flight. We spent three weeks
tuning SLAM parameters, testing in different lighting conditions, and learning why your loop closure detector
needs to be robust before you ship.
We talked to curators, conservators, and security staff. They taught us something machines often miss: a robot in
a museum isn't an exhibit, it's a tool. And tools should be invisible. How we designed Yantrax to fit into
heritage spaces without overshadowing them.
Running a state-of-the-art vision model on 8GB of RAM means quantization isn't optional—it's survival. We went from
FP32 to INT8 while keeping 94% accuracy. This is what we learned about the dark arts of model compression.
ROS 2 is powerful, but deploying it on a robot that needs to run 6+ hours without supervision is a different beast.
Real-time concerns, memory leaks, and the joys of debugging a distributed system on moving hardware.
Yantrax can greet visitors in six Indian languages. But making speech feel natural—not robotic—meant diving deep into
prosody, pacing, and the subtle art of making machines sound welcoming. Our journey with text-to-speech.
NLPLinguisticsUX
Coming Soon
We're working on more posts about our competition journey, the technical challenges we've overcome, and reflections
on what it means to build robots for cultural preservation. Stay tuned.