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REVOLUTIONARY
immune-profiling technology. 

Human Data

Feromics maps the gene programs that distinguish high-performing immune cells from the rest. By analyzing thousands of genes across hundreds of human samples, we reveal hidden mechanistic networks where distinct biological processes show correlated activity, working in concert to drive immune cell function. These integrated wiring diagrams expose how cytotoxicity, signaling, and metabolic states converge, not as isolated pathways, but as a single interconnected system that determines whether an immune response succeeds or fails.

Human data - Network.png

After training our Omnix AI framework on hundreds of human samples, we observe a striking bimodal split between high and low effector immune cells. Behind this functional divide sits a precise molecular signature that Omnix learns to recognize from a donor's transcriptional state alone, turning a complex biological readout into a single, actionable score. This is the foundation for identifying responders, optimizing cell therapies, and ultimately engineering immune function at scale.

Human data - classification.png

Human Data

Feromics maps the gene programs that distinguish high-performing immune cells from the rest. By analyzing thousands of genes across hundreds of human samples, we reveal hidden mechanistic networks where distinct biological processes show correlated activity, working in concert to drive immune cell function. These integrated wiring diagrams expose how cytotoxicity, signaling, and metabolic states converge, not as isolated pathways, but as a single interconnected system that determines whether an immune response succeeds or fails.

Human data - Network.png

After training our Omnix AI framework on hundreds of human samples, we observe a striking bimodal split between high and low effector immune cells. Behind this functional divide sits a precise molecular signature that Omnix learns to recognize from a donor's transcriptional state alone, turning a complex biological readout into a single, actionable score. This is the foundation for identifying responders, optimizing cell therapies, and ultimately engineering immune function at scale.

Human data - classification.png

Human Data

Feromics maps the gene programs that distinguish high-performing immune cells from the rest. By analyzing thousands of genes across hundreds of human samples, we reveal hidden mechanistic networks where distinct biological processes show correlated activity, working in concert to drive immune cell function. These integrated wiring diagrams expose how cytotoxicity, signaling, and metabolic states converge, not as isolated pathways, but as a single interconnected system that determines whether an immune response succeeds or fails.

Human data - Network.png

After training our Omnix AI framework on hundreds of human samples, we observe a striking bimodal split between high and low effector immune cells. Behind this functional divide sits a precise molecular signature that Omnix learns to recognize from a donor's transcriptional state alone, turning a complex biological readout into a single, actionable score. This is the foundation for identifying responders, optimizing cell therapies, and ultimately engineering immune function at scale.

Human data - classification.png
OmniX AI Workflow schematic.jpeg

OmniX: AI Built on Functional Biology

OmniX is trained on our proprietary functionally labeled immunomics datasets, among the world’s largest of their kind. Rather than measuring immune-cell activation alone, the platform learns which biological programs are truly associated with therapeutic function, persistence, resistance, and clinical response.

METRICS

Data size: >10 PB

# of cells: >250 Million 

>1000  human samples

OmniX: AI Built on Functional Biology

OmniX is trained on our proprietary functionally labeled immunomics datasets, among the world’s largest of their kind. Rather than measuring immune-cell activation alone, the platform learns which biological programs are truly associated with therapeutic function, persistence, resistance, and clinical response.

OmniX AI Workflow schematic.jpeg

Metrics:

Data size: >10 PB

# of cells: >250 Million 

>1000  human samples

METRICS

Data size: >10 PB

# of cells: >250 Million 

>1000  human samples

Data size: >10 PB

>1000  human samples

# of cells: >250 Million 

THERAPEUTIC PIPELINE

Feromics is actively applying its platform toward the development of new therapies.

Feromics is actively applying its platform toward the development of new therapies.

PROGRAM

PRECLINICAL

PHASE 1

PHASE 2

PHASE 3

Diffuse large B-cell lymphoma (DLBCL)

F01-50 ID-CAR-T

Undisclosed indication

F03-50 ID-CAR-T

CLINICAL APPLICATIONS OF OMNIX

AML — Donor Selection for DLI and HSCT 

OmniX AI platform is designed to improve donor selection for AML patients undergoing hematopoietic stem cell transplantation (HSCT) and donor lymphocyte infusion (DLI). 

 

Rather than relying solely on HLA matching, OmniX functionally profiles donor immune cell is to identify the molecular programs associated with durable anti-leukemic activity, persistence, and reduced exhaustion.

By linking real tumor-killing behavior with AI-driven transcriptomic analysis, Feromics aims enable more predictive donor selection strategies and improve long-term immune control in AML.

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