The Spectral Thesis

Molecular truth,
instantly across any domain.

Molecular information exists
in light. We just need to understand it.

Every molecule: every pathogen, protein, contaminant, and compound, has a unique spectral fingerprint encoded in light. Spectroscopy has known this for over a century. What we lacked was a system fast enough and intelligent enough to read it in real time, across instruments, at scale.

LLMs learned language. CortX is the first spectral foundation model trained for the electromagnetic spectrum itself.

Physical AI describes systems that can perceive, reason about, and act in the physical world. Most Physical AI today addresses spatial perception i.e., where things are. CortX addresses the deeper layer: what things are made of. Molecular identity. Chemical state. Biological composition. The answer to the physical world is now readable in real time.

Microscopic view of several round, translucent cells or particles on a dark background.Dark background with floating colorful glowing orbs of blue, pink, yellow, and purple dots.Colored particle spheres with data boxes showing no contamination, protein aggregation 23%, and time elapsed 0.8 seconds.

Building the world’s largest spectral corpus

Step 1: Capture

Any sensor.
 Any modality.
 Any environment.

CortX integrates with Raman, near-IR, FTIR, mass spectrometry, fluorescence, hyperspectral imaging, liquid chromatography, UV-Vis, NMR, XPS and more across major third-party manufacturers via a hardware abstraction layer. It works with equipment you already own, deploying as a software intelligence layer over existing infrastructure.

Microscopic rod-shaped bacteria with insets showing Raman spectroscopy graphs and intensity patterns.

Step 2: Infer

Raw spectral signal becomes molecular identity.

The inference layer translates spectral data into real-time intelligence. CortX reads the molecular composition, state, and identity of what the sensor is reading, no a priori knowledge required.

E. coli bacteria detected with Raman shift graphs showing intensity and spatial position data analysis.

Step 3: Domain

Every scan sharpens the model across every domain.

CortX is cross-domain by design. Pathogen signatures learned in blood improve contamination detection in food, which improves early warning in a bioreactor.

CortX logo centered with images of lab tests, industrial equipment, lettuce, milk bottles, and Raman spectra charts.

Step 4: Trust

Decisions grounded in physical reality.

The output of CortX is an answer, grounded in the physical laws governing how matter interacts with light. The architecture is built around auditability and validation, meeting the bar required by clinical and regulatory bodies. 

Four progress bars labeled no contamination, remove from assembly, prescribe penicillin, ready to ship with related images.

Existing applications

Solutions, ready to deploy

Pre-built means the model, the validation work, and the deployment path are already done. Each solution has been trained on domain-specific spectral data, tested against real-world samples, and proven in deployment. What's left is integration into your existing workflow.

Clinical diagnostics

Biomanufacturing

Food & supply chain

Defense & security

Quality control

One model, every spectrum

LLMs gave AI the ability to read and reason about text and imagery, the SFM gives AI the ability to read and reason about matter.

CortX is the foundation, the SFM is how researchers, scientists, engineers, and more interact with it directly. This means analyzing spectra, or identifying unknowns to explore what’s possible within one’s domain.
The SFM Is now available for pre-release access, free to qualified researchers and institutions

AI interface answering 'Is this lettuce safe to ship?' with safety details and contamination data.

Turn a question into a deployable model in 48 hours

Traditional model development required months of manual data collection, compounded with iterative experimental design and specialist expertise to validate it. Thus, every new domain and sensor configuration, and their subsequent deployment, restarted the process.

We transform a scientific question into a validated AI model. It autonomously moves through feasibility analysis, experimental design, data collection, and model deployment while keeping the user in control of every decision that matters. 

1

Market & Technical Analysis

2

Project Charter

3

Automated DOE Design

4

Automated Data Collection

5

AI-Driven Analysis

6

Deliverables & Deployment

7

Solution Build & Productization

8

Commercialization & Revenue

Engage with us

If your problem involves knowing what something is, faster than anyone can currently tell you, we can work on it across any domain.