A longitudinal, multi-omic infrastructure designed to support structured prevention and clinical triage.

BioTwin builds a continuously evolving virtual twin of each individual by integrating biological, behavioral, lifestyle, and clinical data into a structured longitudinal baseline. Below are the data layers that power your twin.

Multi-layer biological and physiological inputs

Metabolites

Direct readout of phenotype, capturing real-time physiological state and early biological change before clinical symptoms.

Glucose, lactate, amino acids, cortisol

Lipids

Direct readout of phenotype, capturing real-time physiological state and early biological change before clinical symptoms.

Cholesterol, triglycerides, phospholipids

Proteomics

Functional layer translating genetic risk into active biology, reflecting organ function, immune activation, and disease-relevant processes.

Albumin, CRP, enzymes, inflammatory markers

Genetics

Stable baseline defining inherited risk, treatment response, and long-term susceptibility that contextualizes all downstream signals.

SNPs, polygenic risk scores, pharmacogenomics

Visual biomarkers

Capture measurable changes in facial features, skin patterns, and morphology that correlate with aging-related risk and other health signals from photos.

Facial analysis, skin health, morphological patterns

Vocal biomarkers

Analyze speech patterns to identify shifts in stress load, cognitive performance, and neuromotor stability.

Stress levels, speech patterns, vocal tremor

Retinal & eye biomarkers

Use eye imaging to assess vascular integrity and detect early indicators linked to various health risks.

Retinal imaging, ocular pressure patterns

Wearables & biometrics

Continuous biometric data from consumer and clinical devices for longitudinal physiological tracking.

Heart rate, sleep, activity, HRV, SpO2

How we build the virtual twin

BioTwin integrates these multi-modal signals into a structured, continuously evolving virtual representation personalized to each individual's longitudinal baseline.

Data integration

Multi-modal data fusion across laboratory results, wearable biometrics, structured questionnaires, imaging inputs, and EHR systems, etc. All signals are normalized, time-stamped, and synchronized to maintain longitudinal reliability.

  • Biomarkers, biometrics, and patient-reported outcomes
  • Genomic, microbiome, and molecular data
  • Visual, vocal, and retinal biomarker analysis
  • EHR integration via HL7 FHIR

AI risk models

Domain-specific signature models trained on longitudinal datasets, generating interpretable probability scores across monitored clinical domains.

  • Disease-specific risk models with interpretable outputs
  • Trajectory prediction using temporal deep learning
  • Causal inference for intervention modeling
  • Uncertainty quantification for clinical decision support

Longitudinal tracking

Structured repeat measurements over time establish a personal baseline and detect meaningful biological drift.

  • Continuous baseline refinement
  • Drift detection against personal norms
  • Adaptive follow-up intensity
  • Structured anomaly flagging

How the virtual twin works

From sample collection to clinical decision support — a continuous, evolving process.

1

Collect

Multi-omic samples and multimodal biomarkers are collected via structured at-home kits or clinic visits.

2

Analyze

Signals are integrated into a longitudinal virtual twin anchored to your personal biological baseline.

3

Risk screening

Structured scoring across 5 clinical domains and 15 health conditions, with longitudinal drift detection and anomaly flagging.

4

Support

Clinicians receive structured risk summaries and triage support. Diagnosis and treatment decisions remain under physician authority.

Scientific Foundations

BioTwin's approach is grounded in peer-reviewed biomedical research supporting longitudinal profiling, multi-omic integration, and virtual twin modeling for improved clinical risk stratification.