Qubic Technologies builds quantum microwave transmitters and receivers using superconducting circuits that generate entangled signals with minimal added noise. By leveraging quantum correlations and noise‑filtering protocols, their hardware delivers dramatically higher sensitivity for detecting, imaging, and communicating weak microwave signals, improving performance and security for telecom, satellite, radar and defense applications.
Funding
$668.6K raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Conventional microwave transmitters and receivers for telecommunications, remote sensing, and radar suffer from electronic noise, frequency crowding, and limited sensitivity, which hampers detection of weak signals and degrades communication reliability in challenging environments.
Solution
Qubic Technologies develops quantum microwave systems built from superconducting circuits that generate and process entangled microwave signals with minimal added noise. By exploiting the non‑linearity of quantum materials, the devices achieve higher signal correlations and quantum‑limited noise performance, providing a measurable quantum advantage in sensitivity. This enables more accurate detection, imaging, and communication even when signals are obscured by ambient noise or interference. The technology is designed for integration into future telecom and remote‑sensing hardware, delivering resilient links and enhanced security under extreme conditions.
Target Audience
Primary customers include telecommunications providers, satellite and remote‑sensing operators, defense and reconnaissance agencies, and manufacturers of radar and wireless networking equipment seeking superior signal performance and security.
Features
- Superconducting quantum circuits that operate without electrical resistance, eliminating classical electronic noise
- Entangled microwave signal generator delivering correlations beyond classical limits
- Quantum‑enhanced receivers that amplify weak signals while preserving signal fidelity
- Built‑in noise‑filtering protocols that exploit quantum vacuum properties to mitigate and even utilize background noise
- High‑sensitivity detection and imaging capabilities for crowded frequency bands
- Resilient communication links with intrinsic security features derived from quantum correlations