Quantum Entrainment Technology (QET)
Quantum Entrainment Technology (QET) is a cutting-edge propulsion and communication system used aboard SS Scavenger DX-1017 and later integrated into Alliance scientific vessels. It functions by synchronizing paired quantum fields between distant points, allowing instantaneous energy and data transfer across vast distances without traditional delay or loss.
Overview
QET operates on the principle of *quantum field resonance*. By creating an entrained state between two anchor points—typically a ship and a relay hub—energy, momentum, and limited matter data can be transferred as if both points exist within a single coherent system. This eliminates the light-speed limitation for information exchange and enables near-instantaneous calibration between ships and orbital facilities.
Function
Each QET node uses stabilized *entanglement cores* cooled to near absolute zero. When synchronized, these cores maintain a coherent link across space. Unlike the Phase Drive, which physically translates a vessel through Phase Space, QET establishes an energetic “echo” of presence across a quantum bridge. This allows for:
- **Instant data transmission** across interstellar distances.
- **Real-time sensor sharing** and synchronized AI cognition between ships (notably between Sariel and Sariel-B).
- **Energy balancing** — power systems can offload or draw energy across the link, stabilizing reactors under stress.
Development
QET emerged during post-war Alliance research into safer alternatives to Phase propulsion. The concept was first proposed by Dr. Elan Drex after observing Phase-field anomalies during the Tonan conflict. Sariel AI later refined the theory through millions of quantum simulations, resulting in the first stable entrainment link in Annuli 3427.
The SS Scavenger was the first vessel to integrate a QET array directly with an AI core, enabling unprecedented cooperative control between organic crew and synthetic intelligence.
Advantages
- Zero-latency communications between entangled nodes.
- Reduced energy expenditure compared to Phase tunneling.
- Increased reliability in high-radiation or sub-space interference zones.
- Enhanced AI synchronization and decision feedback.
Limitations
QET requires pre-entangled cores — physical separation of linked cores beyond ~40 light-years causes gradual decoherence. Extreme gravitational fields can desynchronize the bridge, risking energy backflow or temporal drift.
Known Applications
- **SS Scavenger DX-1017:** Core AI-Drive coordination and remote sensor linkage.
- **Ralos Medical Frigate (MX-1142):** QET used to transmit biological data to orbital labs in real time.
- **Transit Window Gateways:** Partial QET integration for stable matter transfer alignment.
Behind the Scenes
In meta-fictional terms, QET represents the *philosophical unification* of connection and flow central to Prosian science — the idea that all systems resonate together when harmony is achieved. It parallels the Prosian saying: *"Naikal musk larē, nilita takni por ni."* — “Reflection joins flow; motion is life.”