A framework that keeps drone swarms safe from cyber attacks — using encryption, AI, and tamper-proof logs.
Any one of these attacks can crash a mission, redirect drones, or steal data. Drone swarms need a built-in security system — like a security guard watching every message.
No drone can read or fake a message without the right key
Strangers are blocked before they can even enter the swarm
AI watches patterns and raises alerts before damage is done
A tamper-proof log no attacker can delete or modify
Russia deployed large-scale GPS spoofing systems that fed fake location coordinates to entire Ukrainian drone swarms mid-flight. Drones were redirected away from targets or made to crash — without a single physical interception. The drones had no way to tell real coordinates from fake ones.
Drones accepted navigation data with zero authentication. Any signal strong enough could overwrite real GPS — no identity check, no signature, no way to verify the source.
Security researchers found that DJI drones transmit all communication — including operator identity and live position — completely unencrypted. Anyone with basic Wi-Fi tools nearby could intercept every message. Worse, "fuzzing" (flooding the drone with random commands) could crash the drone or hand over full control to an attacker.
Zero encryption on any message. No verification before a command is accepted. Any nearby device could read, record, or inject traffic freely.
Russia launched nearly 60,000 Shahed-type attack drones against Ukraine. Ukraine countered by jamming and spoofing the unprotected coordination signals between Shahed drones — breaking swarm formation, causing drones to lose direction and miss targets. The swarm had no mechanism to detect that its coordination had been hijacked.
No authentication between drones in the swarm. Coordination messages carried no signature — a jammer could silence real signals and inject fake ones with no way for any drone to know the difference.
A security flaw (CVE-2023-6951) let an attacker within Wi-Fi range connect to a Mavic 3 drone without any authorisation, obtain the network key, and decrypt all traffic between the drone and its legitimate operator. In a commercial delivery swarm, this means any attacker nearby could silently join the swarm network and issue commands.
No cryptographic identity check before joining the drone network. The drone accepted any device that could guess or brute-force its Wi-Fi password — no certificate, no key pair required.
Lithuania recorded over 1,000 GPS interference cases in a single month — 22 times higher than the year before. On March 23–24, 2024, widespread jamming hit more than 1,600 aircraft over two days across Eastern Europe. Military UAV swarms in the region had navigation data corrupted with no real-time alert to operators and no way to reconstruct what happened afterward.
No AI watching for abnormal flight patterns. No tamper-proof log of what commands each drone received. Post-incident forensic analysis was nearly impossible — investigators couldn't tell which drones were compromised or when.
A live web screen showing all drones, their positions, trust scores, and any security alerts in real time
Special drones that watch all traffic, verify every message, and calculate a trust score for each drone
Every message is encrypted (scrambled), digitally signed (like a fingerprint), and timestamped (to prevent reuse)
Multiple drones talking to each other like a wireless web — each has a unique cryptographic identity card
Learns normal behaviour and flags anything unusual
Permanent, tamper-proof record of everything that happened
Like putting a letter in a locked box that only the recipient can open. Even if intercepted, it's unreadable.
Like a wax seal on an envelope — proves the sender is genuine and the message hasn't been tampered with.
Each message has an expiry time. Old replayed messages are automatically rejected.
A fake drone tries to secretly join the swarm to spy or disrupt missions
An attacker records a real message and sends it again later to confuse or manipulate drones
An attacker sends a forged command pretending to be from the control station to redirect drones
Think of it like a chain of sealed envelopes — each one contains the fingerprint of the one before it. Open one and you break the chain. Nobody can secretly change history.
Once written, no one — not even the admin — can change a log entry
Every drone join, command, and alert is recorded with time and drone ID
After any incident, investigators can trace exactly what happened and when
Solidity rules automatically decide what gets stored — no manual entry
We would be happy to take your questions.