Longitudinal intelligence
Baseline, change and personal trajectory.
miRoncol connects biological samples, broad and focused measurement, AI-assisted pattern recognition and longitudinal data. The same intelligence engine is designed to support carefully validated applications across multiple chronic disease domains.
The platform thesis is not that every signal becomes a test. It is that one governed measurement and intelligence foundation can support many carefully validated questions.
Baseline, change and personal trajectory.
Four major chronic disease domains.
Blood today. Saliva and urine research.
Early cancer detection built on published research.
Accredited, quality-controlled delivery.
Broad discovery and focused assays.
The platform connects biological inputs, laboratory measurement, computational interpretation, personal history and focused applications. Each layer has a different job. Together they create an intelligence infrastructure designed to expand responsibly.
Blood is the current foundation. Saliva, urine and other sample types may be investigated where application-specific science supports them.
NGS preserves a wide view of the measured microRNA panel. Targeted PCR provides efficient measurement when a defined signature has been supported.
AI-assisted models evaluate relationships across multiple signals, quality controls and biological context rather than relying on one isolated marker.
A measurement captures the present. Continuing measurement can establish a personal baseline, reveal sustained change and show trajectory around an intervention.
Supported signatures may move into disease-specific assays, clinical research pathways and focused tests. miCheckup oncology is the first application.
Broad platform does not mean broad claims. Every disease area, sample type, analytical model and intended use requires its own evidence and validation.
This is the strategic difference between a single-purpose test and a platform: the same core capabilities can generate deeper context, broader research utility and additional focused applications.
Repeated profiles can establish an individual range, reveal sustained change and place an intervention or treatment on a meaningful timeline.
BASELINE → CHANGE → INTERVENTION → RESPONSEAs scientific understanding and analytical models develop, appropriately governed earlier profiles may be revisited to investigate newly relevant patterns.
MEASURE ONCE → ANALYZE RESPONSIBLY → REVISITShared measurement, quality and analytical infrastructure can inform distinct applications. Each one advances only with its own evidence.
SHARED CORE → VALIDATED SIGNATURE → FOCUSED ASSAYComprehensive measurement preserves optionality. The value is not predicting every future discovery. It is retaining a sufficiently broad record so relevant earlier patterns are not automatically lost.
This is why broad NGS measurement can be valuable in research and longitudinal programs: a narrow assay answers a defined question, while a broad profile preserves room for questions that have not yet been resolved.
Establish a measured record using the scientific and technical standards available today.
A pathway, signature or analytical relationship becomes more scientifically relevant.
Where consent, data quality and comparability permit, earlier profiles can be examined with the updated question.
A supported signature may inform a defined, application-specific assay rather than remain a broad research signal.
The ability to revisit historical profiles depends on consent, data retention, measurement quality, batch comparability, analytical validity and the requirements of the particular research or clinical application.
A current result can still be informative without a baseline. But starting while healthy adds something population comparison cannot provide: the person’s own prior state.
Capture a broad profile before symptoms appear.
Confirm which patterns appear stable for this individual.
A repeated upstream pattern moves beyond the established range.
Treatment or another intervention now has temporal context.
The upstream pattern changes direction after the event.
Later measures investigate whether downstream biology follows.
The two technologies serve different roles. NGS supports broad discovery and longitudinal optionality; targeted PCR supports efficient measurement of an established signature.
Use next-generation sequencing when the question benefits from a wide microRNA field of view.
Use targeted PCR when a defined set of microRNAs has been supported for a specific application.
These are complementary, not competing, methods. The platform can use broad NGS measurement to learn and preserve optionality, then develop focused PCR assays where the evidence supports a narrower application.
The platform connects research across oncology, cardiovascular, neurodegenerative and metabolic disease. The evidence remains application-specific. Oncology is the published foundation and first focused application. The other domains remain research directions.
MicroRNA measurement, data quality, AI-assisted pattern analysis and longitudinal context.
The first peer-reviewed publication of a miRNA-based multi-cancer early detection model, translated into the miCheckup Early Cancer Detection Test.
See miCheckupRegulatory patterns connected to vascular biology, cardiac stress and inflammation.
Patterns under investigation in neurological decline and neuroinflammatory biology.
Regulatory pathways connected to insulin response, energy balance and metabolic dysfunction.
Research directions are not presented as validated products. Each domain requires its own cohorts, analytical validation, clinical evidence and intended-use pathway.
Technical possibility is only part of the platform. Responsible progress also requires governed data use, transparent evidence and application-specific validation.
Collect and use biological data within clear research, clinical and participant permissions.
Preserved data is valuable only when sample handling, measurement quality and analytical comparability are sufficient.
Separate exploratory patterns from validated signatures and validated signatures from approved clinical uses.
Computational intelligence should support responsible medical interpretation, not replace physician-led diagnosis and care.
Go deeper into microRNA biology and published evidence, or see miRoncol’s first focused application.