Fly Robot Interface (Neural). NeuRob

Krapp Lab · Department of Bioengineering, Imperial College London

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Motivation

Biology is significantly more energy-efficient than traditional computing

For Our Project

We have leveraged a bio-inspired brain-machine interface (BMI) system that uses visual neurons from blowflies (Calliphora vicina) to control wheeled robots in real time. This system converts H1 neuron optical flow signals into motion commands, mimicking how insects avoid obstacles.

Project Overview

This project applies insect visual systems—specifically H1 neurons—toward robot control. We used real-time neural recordings to steer robots with more than 90% obstacle avoidance accuracy.

Project System Overview

Technical Highlights

Real-time insect neuron signals for robot control
Optical flow response simulating natural obstacle avoidance
Dual H1 neuron fusion for expanded perception
Custom 3D-printed platform for enhanced stability
Scalable to complex obstacle avoidance systems

Before & After Improvement

Before improvement After improvement

Team Members

Supervisors

Prof. Holger Krapp

Prof. Holger Krapp

Professor of Sensory and Motor Neuroscience at Imperial College London.

Dr. Jiaqi Huang

Dr. Jiaqi Huang

Research Associate at Imperial College London. Working on biohybrid robotic system based on insect vision in Krapp Lab.

Project Members

Zeyuan Xin

Zeyuan Xin

Yuichiro Minamikawa

Jiaowen Jun

Jiaowen Jun

Shuchang Zhang

Shuchang Zhang

Changyu Hu

Changyu Hu

Yi Zhang

Badriyah Islam

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