The Vision:
Tuning Neural Fields Like Radio Stations
Tuning Neural Fields Like Radio Stations
The human brain is fundamentally a multi-band, ultra-low-power broadcast system.
Neural Band Radio™ (NBR) represents the first instrument designed to tune this biological transmitter with the precision and selectivity of a classic radio receiver—except here, the "stations" are distinct frequency bands, cortical regions, and scales of neural activity within living tissue.
Neural Band Radio™ (NBR) represents the first instrument designed to tune this biological transmitter with the precision and selectivity of a classic radio receiver—except here, the "stations" are distinct frequency bands, cortical regions, and scales of neural activity within living tissue.
Our approach breaks from conventional neurotechnology by recognizing three foundational principles.
First, entropy exists as a triadic agency where gravity, motion, and time are unified—brainwaves are organized entropy flows manifesting through biological substrate.
Second, the brain operates as a wet photonic computer where electrical fields, magnetic fields, and biophotons represent different facets of one thermodynamic continuum.
Third, noise is not an enemy to be filtered but a resource to be harvested, modeled, and repurposed within the computational architecture.
First, entropy exists as a triadic agency where gravity, motion, and time are unified—brainwaves are organized entropy flows manifesting through biological substrate.
Second, the brain operates as a wet photonic computer where electrical fields, magnetic fields, and biophotons represent different facets of one thermodynamic continuum.
Third, noise is not an enemy to be filtered but a resource to be harvested, modeled, and repurposed within the computational architecture.
Neural Band Radio doesn't compete with EEG caps or fMRI machines.
We've built an entirely new class of instrument whose native language is light, entropy, and ternary logic.
This is brainwave sensing reimagined from first principles, designed for a future where human-machine interfaces demand unprecedented sensitivity, resilience, and bandwidth.
We've built an entirely new class of instrument whose native language is light, entropy, and ternary logic.
This is brainwave sensing reimagined from first principles, designed for a future where human-machine interfaces demand unprecedented sensitivity, resilience, and bandwidth.
Key Organizing Principles
- Triadic entropy framework: gravity–motion–time as unified agency
- Wet photonic computation: fields and biophotons as thermodynamic substrate
- Noise harvesting: environmental interference becomes computational resource
- Light-first architecture: photonic transport replaces electron pathways
The Signal Stack:
From Chaos to Semantics
From Chaos to Semantics
Neural Band Radio's computational architecture transforms raw photonic measurements into actionable intelligence through six integrated processing layers.
This signal-to-semantics pipeline represents the most sophisticated brainwave interpretation system ever designed, capable of real-time demodulation of chaos-like neural patterns into audio, visual, control channels, and natural language summaries of brain state.
This signal-to-semantics pipeline represents the most sophisticated brainwave interpretation system ever designed, capable of real-time demodulation of chaos-like neural patterns into audio, visual, control channels, and natural language summaries of brain state.
The stack begins with Quark™ Runtime, a micro-OS that describes signal flows as composable pipelines where coil segments feed denoising, stabilization, spectralization, and event routing.
The familiar radio "dial" metaphor is implemented as Quark configurations: F-knob controls frequency band emphasis and bandwidth, S-knob selects active coil segments and spatial filters, L-knob adjusts between macro and micro activity scales.
The familiar radio "dial" metaphor is implemented as Quark configurations: F-knob controls frequency band emphasis and bandwidth, S-knob selects active coil segments and spatial filters, L-knob adjusts between macro and micro activity scales.
Quark™ Runtime
Micro-OS and domain-specific language for composable signal pipelines.
Implements intuitive "radio dial" controls for frequency, spatial, and scale tuning parameters.
Implements intuitive "radio dial" controls for frequency, spatial, and scale tuning parameters.
Chaos Engine™ + Qentropy
Enforces physical plausibility and thermodynamic conservation.
Learns user-specific neural attractors, identifies stable phase-coherent "stations," and maintains long-term tracking locks.
Learns user-specific neural attractors, identifies stable phase-coherent "stations," and maintains long-term tracking locks.
Quantum-Spectral Intelligence™
Treats tuned patterns as signatures in spectral space.
Disambiguates overlapping sources, tags each with evolving ID and uncertainty metrics, exports clean channel layers.
Disambiguates overlapping sources, tags each with evolving ID and uncertainty metrics, exports clean channel layers.
ERICA™ Reasoning
Translates entropharmonic dynamics into semantic primitives.
Recognizes internal speech onset, imagery formation, motor intent, emotional shifts—produces labeled events for downstream systems.
Recognizes internal speech onset, imagery formation, motor intent, emotional shifts—produces labeled events for downstream systems.
Q-Tonic™ Processor
PhotoniQ's flagship processor architecture, designed to dominate computational workloads for 50–100 years.
Runs heavy signal processing in near-real time, compresses multi-channel data for storage and training.
Runs heavy signal processing in near-real time, compresses multi-channel data for storage and training.
FZX Engine (Optional)
Visualization and replay subsystem.
Reconstructs physics-consistent scenes approximating subject's mental imagery or attentional focus—"thought cinema" interface for users and clinicians.
Reconstructs physics-consistent scenes approximating subject's mental imagery or attentional focus—"thought cinema" interface for users and clinicians.
NSLAT™:
Surviving the Unsurvivable
Surviving the Unsurvivable
Non-Linear Surge-Limiting and Absorption Technology
Conventional electronics are fragile in the face of high-energy electromagnetic events.
A nearby lightning strike, solar storm-induced geomagnetic disturbance, or deliberate electromagnetic pulse can induce voltages and currents that instantly destroy semiconductor junctions, fuse circuit traces, and render devices permanently inoperable.
Critical infrastructure—from medical equipment to defense systems—remains vulnerable despite decades of hardening research.
A nearby lightning strike, solar storm-induced geomagnetic disturbance, or deliberate electromagnetic pulse can induce voltages and currents that instantly destroy semiconductor junctions, fuse circuit traces, and render devices permanently inoperable.
Critical infrastructure—from medical equipment to defense systems—remains vulnerable despite decades of hardening research.
NSLAT™ represents PhotoniQ Labs' breakthrough solution: a multi-layer protection architecture that doesn't merely survive electromagnetic threats but actively harvests them.
The technology combines non-linear materials with adaptive geometry to create surge-limiting structures that clamp induced currents before they reach sensitive components.
But unlike conventional protection schemes that dissipate captured energy as waste heat, NSLAT hands it to the Octad core as a usable power source.
The technology combines non-linear materials with adaptive geometry to create surge-limiting structures that clamp induced currents before they reach sensitive components.
But unlike conventional protection schemes that dissipate captured energy as waste heat, NSLAT hands it to the Octad core as a usable power source.
Protection Architecture
- Non-linear clamping structures at all external interfaces
- Multi-stage absorption network with adaptive impedance
- Energy recovery and routing to Octad storage
- Fine-grained module-level protection for critical subsystems
- Validated against MIL-STD-461 and IEC 61000-4-25 surge profiles
Each critical Neural Band Radio module—NeuroCoils, cryogenic detectors, Octad core, Orchestral-Q orchestrator, compute subsystems—has embedded NSLAT elements tailored to its specific vulnerability profile.
The result is a device that maintains full operational capability through events that would permanently disable conventional neurotechnology.
For defense, aerospace, and critical infrastructure applications, this resilience is not merely a feature but a fundamental requirement.
Product Lines:
From Lab to Field
From Lab to Field
NBR-Clinical
Hospital-grade brainwave radio for non-invasive assessment of neurological disorders, neurodegeneration, and brain injuries.
Integration pathways for existing EEG/MEG systems with NBR's photonic channel as enhanced diagnostic layer.
Designed for FDA/CE clearance pathways.
Integration pathways for existing EEG/MEG systems with NBR's photonic channel as enhanced diagnostic layer.
Designed for FDA/CE clearance pathways.
NBR-Lab
Research instrument with full programmability via Quark and QSI.
Rich APIs for data export and model training pipelines.
Targeted at neuroscience labs studying oscillations, synchrony, cognition, and consciousness mechanisms.
Development kit included.
Rich APIs for data export and model training pipelines.
Targeted at neuroscience labs studying oscillations, synchrony, cognition, and consciousness mechanisms.
Development kit included.
NBR-Coach
Performance and coherence training system measuring inter- and intra-brain synchrony in teams, groups, and couples.
Real-time feedback on focus, alignment, and engagement states.
Applications in sports, executive coaching, and collaborative work optimization.
Real-time feedback on focus, alignment, and engagement states.
Applications in sports, executive coaching, and collaborative work optimization.
NBR-BCI
Brain-computer interface leveraging stable neural "stations" as command channels.
Controls devices, applications, and XR environments through thought.
Integrates gaze and biophoton channels for multimodal "look-to-act" interaction paradigms.
Controls devices, applications, and XR environments through thought.
Integrates gaze and biophoton channels for multimodal "look-to-act" interaction paradigms.
NBR-Field
EMP-hardened, fully autonomous unit combining NSLAT protection, Octad energy autonomy, and Orchestral-Q resilience.
Designed for defense, aerospace, and extreme environment applications requiring silent, local brain-state monitoring with zero external dependencies.
Designed for defense, aerospace, and extreme environment applications requiring silent, local brain-state monitoring with zero external dependencies.