Quantum-secure infrastructure built on WaveCore Continuum Theory
QCT develops encryption, grid control, and bio-signal tooling on a single scalar-field backbone instead of disconnected point solutions.
One physics layer, many markets
WCCT links post-quantum encryption, coherence-indexed grids, and biological timing into a single measurable framework – so partners see one roadmap instead of scattered point solutions.
Why WCCT exists
WCCT treats the universe as an aetheron coherence substrate instead of a set of disconnected forces. That gives us one language for encryption, grids, and biological timing instead of three separate stacks.
- Coherence first We use a coherence index Ξ between 0 and 1 as the primary observable, so every experiment and pilot can be compared on the same scale.
- Aetheron Coherence Substrate The ACS field encodes how phase and energy organize in time and space, which lets us model drift, stability, and failure modes directly.
- Testable and falsifiable We define null tests and kill criteria up front, so partners can see exactly what would count as success or a disproof.
Ξ as a control dial
In QLX, MHO, and QX-Bio, Ξ is not just a metric. It is a live control dial that links algorithms, hardware, and field data.
From ACS to products
The same ACS model drives key space search in QLX, resonance bands in MHO, and timing signatures in QX-Bio. One substrate, different views.
Lab to field pipeline
We move from notebooks to pilots by keeping the coherence index and ACS parameters consistent: the same equations drive both theory and logs.
Built on one coherence substrate
Every product at QuantumCore Technologies is wired to the same aetheron coherence substrate. The coherence index Ξ and ACS parameters show up in logs, dashboards, and solver outputs so teams can move from theory to pilots without changing languages.
QAC Solver Stack
Quantum-analog compute nodes that run WCCT style dynamics on real hardware. Designed for hard optimization problems where you want analog speed and a live coherence index alongside objective values.
- Single node mini data center ready footprint
- Ξ and energy logged on each solve step
- API layer for solvers, pilots, and agents
SARC
Coherence indexed communication channels that give QKD-style security guarantees without relying only on entangled photon hardware. SARC tracks the coherence profile of a link as a first class security signal.
- Channel level Ξ fingerprints for each hop
- Alerting on coherence drift, not just bit errors
- Fits alongside classical and PQC stacks
MHO Coherence Grid
A grid control layer that turns raw voltage, current, and power into a live coherence index for feeders, substations, or full regions. MHO is where WCCT meets utilities and microgrids.
- Ξ dashboard for lines, nodes, and regions
- Control laws that favor coherent operating bands
- Compatible with existing SCADA and PMU data
QLX Encryption
A family of scalar wave inspired encryption schemas that combine hardware entropy, coherence aware key generation, and modern PQC. QLX is designed to sit beside NIST standard algorithms, not replace them.
- Coherence indexed key pools and entropy tests
- QLX APIs for services, devices, and logs
- Roadmap toward post quantum audit tooling
QX-Bio
A WCCT based lens on biological timing. QX-Bio looks at neural, vascular, and tissue signals through coherence signatures and ACS parameters rather than only frequency bands and averages.
- Ξ style metrics for neural and bioelectric data
- Tooling for timing based biomarkers and drift
- Built for lab experiments and early clinical pilots
More modules on the way
We are already mapping WCCT into additional domains, including materials, observatories, and developer tooling. This tile expands as new products move from notebook to pilot.
- WaveCore Sensor and observatory pilots
- Developer IDE and solver tooling
- Additional ACS driven observables
Programs that live or die on coherence
We are a fit where stability, drift, and signal quality are mission critical and already under heavy instrumentation. QCT focuses on programs that benefit from treating coherence as a measurable control dial instead of a side effect.
High risk programs
For efforts in secure communication, contested spectrum, grid resilience, or non standard sensing, WCCT provides a unified way to score coherence and link it to outcomes.
- DSO, I2O, MTO, and TTO style programs
- SBIR and prototype pilot phases
- Coherence indexed metrics beside classical KPIs
Space and observatory systems
For observatories, ground stations, and mission control, we link WCCT and ACS to timing drift, link stability, and sensor coherence.
- Deep space and near Earth communication links
- Observatory timing and stability diagnostics
- Payload friendly coherence sensors and logs
Utilities and operators
For utilities and microgrids, MHO adds a coherence view on top of existing SCADA and PMU data so operators can see when a region is drifting out of its stable band.
- Regional and national grid operators
- Microgrids and advanced distribution pilots
- Renewables integration and stability work
Quantum and photonics labs
For labs building cavities, quantum hardware, or advanced photonics, we provide WCCT based models, solvers, and coherence logging that sit next to existing experimental stacks.
- Quantum optics, cavity, and photonic platforms
- QAC style analog solvers for complex systems
- Ξ based diagnostics for hardware and control loops
Biological timing and health
For teams studying neural coherence, bioelectric signals, or complex rhythms, QX-Bio adds WCCT style timing metrics and ACS parameters without discarding existing pipelines.
- Neuroscience and bioelectric research groups
- Tissue, organoid, or in vivo timing studies
- Exploratory work on coherence based biomarkers
Industry and startup teams
For teams building new infrastructure or platforms, we offer WCCT ready APIs, notebooks, and reference stacks so coherence can be part of the design from the start.
- Security, energy, and sensing startups
- Cloud and edge platform teams
- Joint IP and co development pilots
How pilots with QCT usually run
We keep pilots small, instrumented, and honest. The goal is to see whether WCCT and coherence indexing add clear signal on top of the data and tooling you already trust.
Scoping and fit
45 to 60 minute working session to map your system, data sources, and constraints. We identify where coherence, drift, or timing are already pain points.
- Clarify mission and success metrics
- Check data access and security constraints
- Decide if WCCT is likely to help
Data tap and notebook
We ingest a narrow slice of representative data into a controlled notebook environment and apply WCCT models, Ξ metrics, and ACS parameters.
- Build a Jupyter or JuNote style analysis
- Compute coherence index Ξ and related observables
- Share early plots and sanity checks
Pilot stack
Once the signal is clear in notebooks, we stand up a small pilot stack, usually a single node or sandbox service that runs in parallel with your existing system.
- Deploy QAC, MHO, QLX, or QX Bio module as needed
- Log Ξ beside your existing KPIs
- Agree on run time and guardrails
Review and next steps
At the end of the pilot we review what changed, where coherence metrics helped, and whether the results justify a larger phase or a handoff to your internal teams.
- Joint readout of metrics and logs
- Documented null results and surprises
- Plan for scale up or wrap up
Typical pilots run 4 to 12 weeks depending on data access and review cycles. We are comfortable working inside government, utility, and research processes.
Start a pilot conversationPublic-safe overviews of our research
QCT publishes conceptual and engineering papers that explain the motivation behind WCCT, coherence indexing, and our platform modules without disclosing proprietary theory or implementation details. These summaries help partners, PMs, and research teams understand where our work fits into real programs.
WCCT v5: Aetheron Coherence Substrate
Foundational overview of coherence-first modeling, the aetheron coherence substrate (ACS), and the coherence index Ξ. Focuses on measurable observables, testability, and applicability to compute, energy, and biological systems.
Foundational TheoryMHO: Coherence-Indexed Grid Control
Explains how coherence indexing provides new visibility into drift and instability in power grids. Demonstrates how Ξ can be layered atop SCADA and PMU data without replacing existing systems.
Energy & StabilityQLX Encryption Framework
A public-safe look at coherence aware encryption, entropy analysis, and how QLX complements NIST PQC standards. Discusses architecture, key lifecycle fitness, and monitoring use cases.
Security & PQCQX-Bio: Biological Coherence & Timing
Describes the role of coherence in neural and biological timing. Provides conceptual insight into timing-based biomarkers without exposing proprietary ACS dynamics.
Bio & NeuroscienceQAC Solver Stack Overview
Introduces quantum-analog solving with coherence diagnostics. Covers system architecture, solver behavior, and how QAC complements classical optimization tooling.
Compute & OptimizationScalar-Wave Information Theory
Presents non proprietary ideas on using coherence, alignment, and structured interference as information measures and channel health indicators.
Information TheoryObservational WCCT Notes
High level discussion on using coherence measures in observatories, timing drift analysis, and cross domain instrumentation. Does not expose proprietary ACS math.
Observatories & SpaceMaterial Coherence Study
A sanitized overview of applying coherence metrics to plasma and nanostructured materials, showing how structure correlates with stability and ordering.
Materials ScienceCoherence-Indexed Sensing
Explores how coherence metrics can supplement traditional sensor stability models such as Fisher information, without revealing any proprietary mechanisms.
Measurement & SensorsPilot Engagement Playbook
A transparent look at how QCT structures 4 to 12 week pilots, data taps, notebooks, and review cycles. Safe for all audiences.
Process & EngagementQCT Platform Architecture
Public overview of QCT’s system layers and the relationship between QAC, SARC, MHO, QLX, QX-Bio, WaveCore Sensor, and future modules.
Platform OverviewWork with QuantumCore Technologies
If your mission depends on stability, timing, and signal quality, we are interested in hearing from you. We work best with teams that already have strong instrumentation and a clear sense of where coherence, drift, or instability are holding them back.
Who this is for
We focus on pilots where coherence is not an abstract idea but a real operational concern.
- DARPA, NASA, DoD, and other government programs
- Utilities, microgrids, and critical infrastructure operators
- Quantum, photonics, and observatory research labs
- Neuroscience, bioelectric, and timing focused groups
- Security and compute teams exploring post quantum directions
What to include in your message
A short, clear description of your system and objectives helps us respond with something concrete instead of generic interest.
- Who you are and what group or program you represent
- What system or data sources you are thinking about
- Where coherence, drift, or instability already show up
- Any constraints on data access, security, or deployment
- Your rough timeline for an initial conversation or pilot
Use the contact form on this page to reach us. Please do not include classified or sensitive details in your first message. We are happy to move into the appropriate environment once there is a clear fit.
Typical response time is measured in days, not minutes. We prefer to read carefully and respond with real technical engagement.
The people behind QuantumCore Technologies
QCT is a research driven deep tech organization built around coherence as a measurable, cross domain foundation. Our team blends theoretical physics, electrical engineering, quantum experimentation, sensing, security, and applied computation.
Dustin Thornton
Founder & Principal Investigator
Dustin founded QuantumCore Technologies to bring coherence first physics, advanced sensing, and secure compute into practical programs. A self taught technologist with a background that spans distributed systems, hardware, cryptography, energy analysis, and theoretical modeling, he synthesized these disciplines into WCCT, the framework that anchors QCT.
His work centers on the Aetheron Coherence Substrate (ACS), coherence indexed systems, and the translation of theory into measurable, instrumented pilots for government, utilities, and research labs. Dustin directs the research roadmap and ensures QCT remains grounded in real world observables.
Jack O’Brien
Electrical Principal Investigator
Jack leads electrical systems and hardware implementation at QCT. His work covers high fidelity sensing, signal chain design, power systems stability, and the practical engineering required to turn research architectures into stable hardware for pilots and demonstrations.
He is responsible for the electrical reliability of QAC nodes, coherence sensitive instrumentation, and cross disciplinary integration where electrical infrastructure meets coherence indexed compute or sensing.
Pranay Pandey
Junior Quantum Systems Experimental Physicist
Pranay works across quantum systems, photonics, optomechanics, and coherence driven measurements. His experience includes precision optics, PDH locked cavities, laser stabilization, and quantum machine learning for noise mitigation.
At QCT, he helps build experimental setups that validate WCCT models against real measurements, supporting QX Bio, QAC trials, and early hardware prototypes. His academic work in Singapore reinforces QCT’s research depth.
How QuantumCore Technologies came together
QCT did not start as a product catalog. It started as a search for a single, measurable way to talk about stability, timing, and drift across very different systems. The timeline below shows how that work grew into WCCT and the current product stack.
Coherence as the missing link
Dustin begins exploring coherence as a unifying idea across sensing, cryptography, grids, and biology. Early notebooks focus on scalar style models, timing drift, and how a single observable could connect lab experiments and field logs.
QLX encryption framework emerges
The first concrete product direction is QLX, a coherence aware encryption framework meant to sit beside NIST PQC. Work focuses on key lifecycle health, entropy characterization, and how coherence metrics can show when a crypto system is drifting out of a safe regime.
MHO brings coherence to grids
The same ideas are applied to power systems. MHO is created as a coherence indexed grid layer that sits on top of SCADA and PMU data. Early simulations show that a single coherence index can capture how regions move in and out of stable bands.
Biological timing and QX-Bio
As coherence patterns in neural and biological data are studied, QX-Bio is framed as the biological face of the same substrate. The goal is to treat timing based biomarkers and neural coherence with the same tools used for grids and secure links.
Quantum analog prototypes and mini data center
The theory moves into compute. QAC prototypes are built as quantum analog style solvers with coherence and energy logging on every step. Work on Pi based nodes and small data center stacks shows that WCCT style dynamics can run on real hardware.
WCCT v5 unifies the platform
WCCT v5 with the Aetheron Coherence Substrate and the coherence index Ξ is formalized as the backbone of QCT. QLX, MHO, QX-Bio, QAC, SARC, and WaveCore Sensor are treated as different faces of the same coherence substrate, giving partners one roadmap instead of separate point tools.