Health AI

Clinical intelligence that supports the patient journey.

Moesha and the AfyaRekod model layer organize risk screening, symptom extraction, vitals analysis, imaging workflows, and governed recommendations with clear safety boundaries.

Model groups5
Serving modes3
GovernanceRequired
AI model breakdownReal-time CPU endpointsAsync GPU for imagingNear real-time vitalsRAG guardrailsModel cardsClinical validation

Understanding the system

Health AI is not one model. It is a set of guided clinical workflows.

Each workflow is separated by what the patient is doing, how quickly the answer is needed, and how much clinical governance is required before an output appears.

Understand risk visual
Understand risk

Screening models read structured answers, not guesses.

Self-assessments use form responses, age, vitals, history, and risk factors to return a clear risk band and next-step guidance.

Understand language visual
Understand language

Text models turn symptoms and records into usable context.

The symptom extractor identifies medical keywords, body areas, duration, severity, and red flags from patient notes and imported records.

Understand change visual
Understand change

Vitals models watch trends across diary and device readings.

Pulse, blood pressure, temperature, SpO2, glucose, and diary patterns can be reviewed for trend shifts and escalation thresholds.

Understand images visual
Understand images

Imaging and visual analysis run through slower governed paths.

Camera, wound, skin, scan, and radiology workflows can be queued for heavier review where auditability matters more than speed.

Patient experience

What the user should feel: explain, prepare, and escalate.

The AI layer should make the record easier to act on. A patient can ask about symptoms, review a result, prepare for a visit, or understand when a clinician should be involved.

See dashboard flow
Patient record dashboard
Record explanationPlain-language summaries from labs, notes, and history.
Vitals tracking visual
Diary and vitals reviewPattern recognition across pulse, BP, SpO2, temperature, and symptoms.
Body health tracking visual
Care escalationRed flags, visit preparation, and clinician-ready summaries.

Capability groups

Each AI capability has a different serving path.

The page separates patient-facing support from heavier clinical workflows so the product feels useful, explainable, and careful.

Self-assessment risk models capability visual
Real-time CPU endpoint

Self-assessment risk models

Structured risk screening for diabetes, hypertension, stroke, cancer, and TSC depression survey workflows.

Patient-facing
Diabetes riskHypertension riskStroke riskCancer riskTSC depression survey
Imaging anomaly and segmentation capability visual
Async GPU or batch

Imaging anomaly and segmentation

CT, MRI, X-ray, and ultrasound analysis should run asynchronously because imaging is heavier and GPU-expensive.

Clinician-assisted
X-ray anomalyCT triageMRI segmentationUltrasound review
Predictive and forecasting models capability visual
Near real-time governed endpoint

Predictive and forecasting models

Diagnosis, prognosis, vitals analysis, and recommendations are routed through governed clinical endpoints.

Care pathway support
Vitals analyzerDiagnosis supportPrognosisCare recommendations
Medical keyword extractors capability visual
LLM/RAG and batch cleanup

Medical keyword extractors

Extract symptoms, diseases, and body-part context from patient text and imported clinical records.

Records and symptom flows
Symptom extractionDisease termsBody part detectionRecord cleanup
Moesha patient assistant capability visual
Guardrailed RAG experience

Moesha patient assistant

Moesha explains records, prepares questions, and guides next actions without replacing a qualified clinician.

Patient guidance
Lab explanationVisit prepDiary summarySafety escalation
Connected health intelligence map

Real-time vs async

Serve fast only when someone is waiting.

This keeps the patient experience responsive while reserving heavier compute for imaging, segmentation, coding, and batch analytics.

Diabetes, hypertension, stroke, and cancer self-assessment

Yes

The user is waiting in the app after submitting a form.

Managed CPU endpoint or lightweight inference service

Symptom extractor

Yes for app, batch for cleanup

Needed during the symptom flow and later for record normalization.

Guardrailed LLM/RAG service with clinical retrieval

Diagnosis, prognosis, and vitals analyzer

Near real-time

Clinician and patient workflows need low-latency but governed output.

Governed inference endpoint, stream processor, and online feature store

Imaging anomaly detection and segmentation

Usually async

Images are heavier, GPU-expensive, and rarely require sub-second output.

Async GPU inference or scheduled batch processing

TSC depression model

After survey submit

Survey-based risk screening should run after form submission, not continuous monitoring.

CPU endpoint or background worker

Governance

Clinical AI needs proof before production.

Model cards, interpretability, fairness review, and validation gates keep Health AI trustworthy and auditable.

Clinical validation gate

Every model needs signed clinical review before it is promoted to production use.

Interpretability

SHAP, LIME, attention maps, or equivalent explanations must be available for governed outputs.

Drift monitoring

Input distribution, prediction drift, and embedding drift are monitored before retraining is triggered.

Safety boundaries

Patient-facing AI explains and guides; it does not diagnose or replace a qualified clinician.

Moesha guides the patient without replacing the clinician.

Health AI should explain, prepare, summarize, and escalate. It should stay grounded in records, guidelines, consent, and clinical governance.

Open prototype