APPLICATIONS

One circulating structure.
Different disease questions.

Extracellular DNA traps are implicated across immune escape, autoimmunity, thrombosis and dysregulated host defense. Preserving their architecture creates a shared spatial measurement layer for translational research.

Fluorescence image of a circulating extracellular DNA-trap structure
REPRESENTATIVE STRUCTUREArchitecture · cargo · cellular context

One circulating structure.
Different disease questions.

Extracellular DNA traps have been implicated across immune escape, autoimmunity, thrombosis and dysregulated host defense. Preserving their architecture adds a spatial measurement layer to each field.

DNA-trap veil surrounding a malignant cell cluster while immune and treatment pressure meet its surface
SCHEMATIC DISEASE LENS · CANCER & IMMUNOTHERAPYA DNA-trap veil separates immune pressure from malignant cells.

An extracellular web wraps the tumor cluster while checkpoint-associated cargo and cytotoxic pressure remain visible at its edge.

Emerging research directions Pulmonary inflammation · reproductive inflammation · inflammatory tissue injury

Investigational research applications · NET-specific attribution requires marker panels and study controls

Three ways the platform
can support drug development.

Each application begins as a defined research question and requires prospective validation in the intended cohort and decision context.

01 / THERAPY SELECTION

Who carries the relevant structural phenotype before treatment?

Prospective studies can test whether baseline trap burden, cargo or cell relationships associate with a defined response endpoint.

02 / RESPONSE MONITORING

Does the circulating trap landscape remodel after intervention?

Matched collections can compare burden, size distribution and structural persistence across clinically relevant timepoints.

03 / DISEASE ACTIVITY

Do persistent structures reveal biology that soluble markers miss?

Structure-resolved imaging can test whether intact objects and fragmented signal change together or diverge over time.

Measure structural response
across treatment.

Early matched observations illustrate two distinct patterns: overall burden reduction and residual structural persistence.

TWO LONGITUDINAL RESPONSE PATTERNS

Compare burden reduction with structural persistence side by side.

01BURDEN REDUCTION
STAGE I CRC · MATCHED PRE/POST-RESECTION

A structural burden that falls after intervention.

Total circulating trap burden decreased into the healthy-reference range two weeks after resection.

Representative Stage I colorectal cancer blood sample before resection showing abundant large extracellular DNA-trap structures
BEFORE RESECTIONHigh structural burden
Illustrative low-burden field two weeks after resection with a few small extracellular DNA-trap structures
TWO WEEKS AFTERHealthy-reference range
ILLUSTRATIVE MORPHOLOGY
TOTAL TRAP BURDENHigh
POST-INTERVENTIONWithin healthy reference
THE KEY QUESTION

Did intervention reduce circulating trap burden—and does that reduction remain durable across follow-up?

02STRUCTURAL PERSISTENCE
SLE · MATCHED PRE/POST-IMMUNOSUPPRESSION

Signal falls, but large structures persist.

Fragmented extracellular-DNA signal decreased after immunosuppression, while large circulating trap-like structures remained detectable.

Representative SLE blood sample before immunosuppressive treatment showing dense extracellular DNA-trap-associated signal
BEFORE TREATMENTMixed structural burden
Matched SLE blood sample after immunosuppressive treatment showing fewer fragments with residual large extracellular DNA-trap-like structures
AFTER TREATMENTResidual large structures
FRAGMENTED SIGNALReduced
LARGE STRUCTURESRemain detectable
THE KEY QUESTION

Did treatment suppress inflammatory activity—or clear the extracellular trap burden?

Exploratory matched observations · Research use only · Prospective validation required

BUILD A STUDY

Translate a disease question into a fit-for-purpose measurement plan.

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