Halocyberlife

BioLumen · Tria

BioLumen™

TRIA-CORE™ Inward-Directed Biophotonic Extraction System

View Official Patent ↗ View Architecture
Input: Biological Biophotons Core: TRIA-CORE™ Extraction Output: Signal & Energy Conversion
Biophotonic extraction interface: Ultraweak photons emitted by organic matter are routed inward through the TRIA-CORE™ geometry for capture, sensing, and energy conversion.
Photon conversion & feedback: Captured biophotons are transformed into measurable signals and recoverable energy, enabling continuous monitoring, synchronization, and adaptive system optimization.
Inward photon guidance layers: Multi-layer optical and resonance structures selectively filter, focus, and route ultraweak biophotons inward toward the TRIA-CORE™ detection and conversion stage.

Picture a space with no visible lights — no bulbs, no panels, no fixtures. Just surface.

Then, with a signal — vibration, frequency, or pressure — those surfaces begin to emit light through direct resonance.

BioLumen TRIA-CORE biophotonic extraction system overview
Figure: BioLumen™ System Overview — A conceptual representation of inward-directed biophotonic extraction, showing biological photon emission, TRIA-CORE™ capture, guided optical routing, and conversion into measurable signals and recoverable energy.

Architecture & Subsystems

BioLumen biophotonic sensing interface capturing ultraweak biological photons

Biophotonic sensing interface

Non-invasive coupling interfaces capture ultraweak biophotons emitted by living organisms, enabling precise sensing and monitoring without light emission or external illumination.

Photon capture

Biophotonic Harvesting Core

Inward-directed TRIA-CORE™ collector geometry captures ultraweak photon emissions from organic matter.

Photon extraction

Extraction Module

Non-invasive resonance technology for biological energy recovery through biophotonic extraction.

Energy Recovery

Bio-Optic Feedback Loop

Advanced fiber-optic arrays route harvested light data back to the central processing unit.

Interface

Cycle Synchronization

Automated adjustment to biological rhythm cycles to maximize peak extraction efficiency.

Continuous Cycle

Bio-Optic Feedback Loop

Advanced fiber-optic arrays route harvested light data back to the central processing unit.

Interface

Cycle Synchronization

Automated adjustment to biological rhythm cycles to maximize peak extraction efficiency.

Continuous Cycle