Bizarre Assembly Line Produces Cyborg Cockroaches in Just Over a Minute

2 13
2 13
An anesthetized cockroach in the assembly line apparatus awaits its electronic backpack
Nanyang Technological University

Instead of painstakingly building miniature robots from scratch, researchers are now transforming real insects into remote-controlled cyborgs—and a new automated production line dramatically speeds up the process.

How Cyborg Insects Work

In simple terms, a cyborg insect is usually a large bug—often a Madagascar hissing cockroach—outfitted with a tiny electronic backpack. Electrodes inside the pack can be activated remotely to stimulate the insect’s antennae or eyes, prompting it to walk, stop, or turn on command.

Far from being a creepy curiosity, these insect hybrids have serious potential. One major proposed use is disaster search and rescue: a camera-equipped cyborg cockroach could crawl through tiny gaps in rubble, relaying live footage and the coordinates of any trapped survivors.

?url=https%3A%2F%2Fnewatlas Brightspot.s3.amazonaws.com%2F43%2F76%2F11f0cebf4740b86426ff85fa5c0c%2Fdownload
A cyborg cockroach developed at North Carolina State University
Eric Whitmire

Such missions would require swarms, not just a handful, of these robotic insects. The vision is to deploy dozens or even hundreds at once, with their backpacks wirelessly coordinating search routes to avoid overlap and cover more ground efficiently.

The Need for Speed and Consistency

To make this approach viable, scientists need a faster, more consistent way to prepare the cockroaches than manually outfitting each one. That’s where the new assembly line comes in.

?url=https%3A%2F%2Fnewatlas Brightspot.s3.amazonaws.com%2F26%2F6d%2Fbca24e67437c85c6441e3bb4bc16%2Fai Powered Robot Assembles Search And Rescue Cyborg Insects
Development of the assembly line (pictured) was supported by the Japan Science and Technology Agency
Nanyang Technological University

Developed by Professor Hirotaka Sato and his team at Nanyang Technological University in Singapore, the fully automated setup includes a holding platform for the insect, an Intel RealSense depth-sensing camera, and a UR3e robotic arm with a Hand-E gripper.

Step-by-Step Automation

The process begins with anesthetizing the cockroach and securing it on the platform. The system then slides into place, and computer vision measures the insect’s size and position. The researchers lift a small section of its outer shell to reveal the membrane between the pronotum and mesothorax.

Installing the Backpack

The team lowers a preassembled 2.3-gram backpack onto the insect, inserts two electrodes into the membrane, presses the pack into position until it clicks securely, and releases the insect once the platform moves back.

?url=https%3A%2F%2Fnewatlas Brightspot.s3.amazonaws.com%2F5a%2F04%2F3ecfdfb54100a112beaf8f626d4d%2Fimage001
A diagram of the assembly line and the cyborg cockroaches – manually-assembled cyborgs have already been field-tested in Myanmar, in the aftermath of a 7.7-magnitude earthquake
Nanyang Technological University

This entire operation takes just 68 seconds per cockroach—compared to 15 minutes to an hour when done by hand. Performance tests showed that both assembly-line and hand-prepared cyborg cockroaches navigated tasks like S-shaped paths and cluttered spaces equally well.

Energy Efficiency and Reusability

The design also benefits the insects and extends battery life, using only 40% of the stimulation time and 75% of the voltage required by similar systems. Researchers can even remove the backpacks between missions.

Our system makes the idea of deploying large numbers of cyborg insects in real-world scenarios far more realistic,” said Sato. “Automation lets us produce them quickly and reliably—an essential capability for urgent operations like post-disaster rescue.


Read the original articel on: New Atlas

Read more: Robotic Hand Demonstrates Lifelike Skill in Intricate Laboratory Tasks

Scroll to Top