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Platform & Science

From biological measurement to autoimmune intelligence.

MetaboType combines accessible urine sampling, high-throughput metabolomics and longitudinal machine learning into a more complete picture of autoimmune disease.

01

One sample

provides a measurement.

02

Repeated samples

reveal a trajectory.

03

Longitudinal trajectories

create the opportunity for prediction.

The platform architecture

Five connected layers, from biological sample to autoimmune intelligence.

01

Sample

Accessible, repeat urine collection.

02

Measure

High-throughput MSI-CE-MS and broad metabolite measurement.

03

Longitudinal Biology

Repeated measurements create trajectories and personal baselines.

04

Intelligence

Clinical labels plus metabolomic trajectories develop predictive models.

05

Learning System

Outcome-linked datasets improve biomarkers and future models.

People living well — the human outcome MetaboType's integrated platform is built to enable
01

Urine Sample

Predictive medicine requires repeated measurements. Urine is non-invasive, repeatable and metabolically rich — reflecting systemic metabolism, renal function, diet, microbiome activity, stress and therapeutic exposure.

MetaboType is developing dried urine spot workflows for simple, decentralized sampling. The advantage is not convenience — easier sampling enables denser longitudinal data.

A patient collecting a simple dried urine spot sample at home
02

Measure

MetaboType is built on multisegment injection capillary electrophoresis–mass spectrometry (MSI-CE-MS). Rather than analyzing samples individually, multiple specimens are introduced sequentially within one capillary and resolved in a single electrophoretic run — increasing throughput while preserving the separation needed to distinguish complex small-molecule mixtures.

150+

urinary metabolites across diverse biological pathways

<3 min

effective analytical time per sample

<10 μL

sample requirements supporting limited-volume studies

Multiplexed

multiple samples analyzed within a single run

CV <15%

analytical precision supporting reliable longitudinal comparison

Automated

data processing for QC, feature extraction and analysis

Capillary electrophoresis mass spectrometry instrument in an analytical lab

A broad biological sensing layer

More than a single biomarker. Autoimmune disease reflects interactions across biological systems, so MetaboType measures broad metabolic patterns rather than one molecular signal. The current urine panel includes:

Immune & inflammatory metabolism

Pathways involved in amino-acid metabolism, arginine biology and immune regulation.

Tryptophan–kynurenine metabolism

Including tryptophan, kynurenine, kynurenic acid and quinolinic acid.

Oxidative stress & redox biology

Metabolic signals associated with cellular stress and antioxidant pathways.

Renal function

Creatinine, symmetric dimethylarginine and other urinary metabolites relevant to kidney metabolism.

Gut microbial metabolism

Hippurate, indoxyl sulfate, phenylacetylglutamine and other microbial-derived metabolites.

Diet & nutritional exposure

Metabolites associated with dietary patterns, foods and nutritional status.

Physiological stress

Steroid-related metabolites and pathways relevant to stress physiology.

Drug & xenobiotic exposure

Selected pharmaceutical metabolites, environmental compounds and exposure signals.

Together, these measurements provide the raw biological information to build a patient-specific metabolic phenotype.

03

Longitudinal Biology

Biology is more informative when measured through time. A single measurement can identify whether a metabolite is high or low. Repeated longitudinal measurements can reveal:

  • Direction — is the biology improving or deteriorating?
  • Rate of change — how quickly is something changing?
  • Individual baseline — what is normal for this patient?
  • Response — what changed after treatment?
  • Pre-event patterns — what changed before a flare?

These longitudinal features can be more informative than a population reference range alone. MetaboType is designed to transform a sequence of metabolic measurements into a biological trajectory — and to turn those trajectories into predictive models.

Population comparison

tells us how patients differ.

Longitudinal comparison

tells us how an individual is changing.

The objective is to identify biological patterns that consistently precede or accompany clinically meaningful outcomes — understanding each patient relative not only to a population, but also to themselves.

04

The MetaboType Autoimmune Intelligence Engine

A MetaboType is the evolving metabolic phenotype of an individual patient, derived from repeated measurement of interconnected biological pathways over time. MetaboType's biological measurements do not exist in isolation — immune regulation, inflammatory metabolism, renal biology and related systems continuously cross-communicate.

MetaboType
Immune regulation
Inflammatory metabolism
Renal biology
Gut microbial metabolism
Stress physiology
Dietary exposure
Therapeutic exposure
Individual metabolic baseline
Longitudinal metabolomic measurements
Disease activity assessments
Treatment and dosing information
Clinical laboratory results
Kidney involvement
Clinical outcomes
Patient characteristics
Timing of flares and disease events

The intelligence engine integrates these longitudinal biological signals with complementary clinical data — disease activity, treatment, kidney involvement and outcomes — to build machine-learning models of autoimmune disease.

From discovery to prediction

The MetaboType AI pathway progresses through four stages.

1

01 — Discover

Identify metabolic features and combinations associated with clinically meaningful phenotypes.

Active vs stable diseaseResponders vs non-respondersRenal vs non-renal diseasePre-flare vs stable periods
2

02 — Validate

Test candidate signatures across independent samples, patients and cohorts to confirm reproducibility despite differences in patient characteristics, treatment and sampling.

3

03 — Model

Combine multiple metabolic signals with longitudinal clinical data. Machine-learning approaches identify combinations of variables that provide greater predictive value than individual biomarkers alone.

4

04 — Predict

Develop models designed to estimate clinically meaningful outcomes. These applications remain development objectives and require prospective clinical validation.

Treatment responseChanges in disease activityLupus nephritis & renal involvementNear-term flare risk
05

The learning system

Measure. Learn. Improve.

MetaboType is a learning system. Each cohort generates new relationships between biology and outcomes; those relationships improve biomarkers, which improve characterization, which generates higher-quality datasets — and better datasets create better models.

More measurements↓Better trajectories↓Better biological phenotypes↓Better predictive models↓More useful clinical insights

This creates a reinforcing data loop.

The proprietary data advantage

The long-term value is created by the combination of the analytical platform, longitudinal measurements, clinical labels and validated biomarker models. Over time, MetaboType aims to build a longitudinal map of:

Disease State→Treatment→Biological Response→Clinical Outcome

Biomarker discovery

Identify new biological signals associated with disease.

Therapeutic development

Measure pharmacodynamic response and patient heterogeneity.

Learn more →

Patient stratification

Identify biologically meaningful patient subgroups.

Response prediction

Determine which biological patterns are associated with treatment success.

Disease forecasting

Identify patterns that precede changes in clinical state.

The measurement platform generates data. The longitudinal dataset creates the intelligence.

Designed to integrate, not replace.

Autoimmune disease won't be understood through one data type alone. MetaboType is designed to complement other biological and clinical data. Integrations include:

Clinical laboratory dataDisease activity scoresProteomicsGenomicsTranscriptomicsMicrobiome dataDigital health measurementsPatient-reported outcomes

Metabolomics is a useful layer because it reflects the combined influence of genetics, environment, treatment, diet, microbiome and current physiology — connecting molecular biology with what is happening to the patient.

Built to scale with the biology, not against it.

The platform is designed around three complementary forms of scalability.

Sampling scalability

Non-invasive urine collection enables repeat sampling outside conventional clinic visits.

Analytical scalability

MSI-CE-MS multiplexing increases sample throughput and reduces analytical burden relative to conventional one-sample-per-run approaches.

Computational scalability

Once standardized longitudinal datasets are established, models can be improved across increasingly large patient populations and therapeutic programs.

Together, they move from isolated biomarker studies toward population-scale longitudinal biology.

Starting with lupus.

Building toward precision autoimmune medicine.