Machine Learning Overview
Telesoft's Healthcare AI leverages state-of-the-art machine learning models to deliver accurate, explainable, and clinically-validated medical insights. This documentation provides an overview of our machine learning architecture and capabilities.
Model Architecture
Our AI system combines several specialized models working together to analyze medical data and generate insights:
Foundational Medical Knowledge Model
A large transformer-based model trained on vast medical literature, textbooks, clinical guidelines, and research papers.
- 175 billion parameters
- Trained on 15 million medical papers and textbooks
- Incorporates knowledge from authoritative medical sources
- Updated quarterly with new medical research
Clinical Reasoning Engine
A specialized reasoning system that emulates medical diagnostic processes, considering symptom patterns, risk factors, and medical history.
- Graph-based reasoning with Bayesian network components
- Fine-tuned on 2.3 million anonymized clinical cases
- Provides probabilities and confidence intervals for diagnoses
- Applies evidence-based medical guidelines to recommendations
Multimodal Medical Analysis
Vision models trained to analyze medical images, including X-rays, CT scans, MRIs, and dermatological images.
- Convolutional neural networks with attention mechanisms
- Trained on 15+ million annotated medical images
- Validated against board-certified radiologists' interpretations
- Supports multiple imaging modalities with specialized sub-models
Time-Series Analysis
Recurrent models analyzing longitudinal patient data to identify trends, predict disease progression, and detect anomalies.
- LSTM and Transformer architectures
- Handles irregular time intervals between measurements
- Accounts for missing data with specialized imputation techniques
- Provides forecasting with confidence intervals
System Architecture
These specialized models work together in an orchestrated pipeline, with a meta-model that weights and combines their outputs based on the specific context and available patient data. This ensemble approach delivers more accurate and reliable results than any single model could provide.
Model Capabilities
Diagnostic Analysis
Our diagnostic models analyze patient symptoms, medical history, demographics, and risk factors to generate:
- Primary diagnosis recommendation with confidence score
- Differential diagnoses ranked by probability
- Explanation of reasoning for each diagnosis
- Suggested follow-up questions to increase diagnostic accuracy
- Recommended diagnostic tests with clinical rationale
Medical Imaging Analysis
Our imaging models can analyze various medical images to detect:
- Abnormalities and pathological findings
- Anatomical segmentation and measurements
- Disease progression compared to prior studies
- Incidental findings requiring attention
Currently supporting: chest X-rays, abdominal CT, brain MRI, dermatological images, and retinal imaging.
Treatment Recommendations
Based on diagnosis and patient context, our models provide:
- Evidence-based treatment options ranked by efficacy
- Medication suggestions with dosage considerations
- Potential drug interactions and contraindications
- Non-pharmacological interventions
- Follow-up and monitoring recommendations
Risk Stratification
Our predictive models assess patient risk for:
- Disease progression trajectories
- Hospitalization or readmission likelihood
- Complications from specific conditions
- Response to different treatment options
Model Performance
Our models undergo rigorous validation against gold standard datasets and expert clinician panels:
Task | Performance Metric | Result | Benchmark |
---|---|---|---|
Primary Diagnosis | Top-1 Accuracy | 87.3% | Board-certified physicians: 86.5% |
Differential Diagnosis | Top-5 Recall | 93.8% | Board-certified physicians: 92.1% |
Chest X-Ray Analysis | AUROC | 0.96 | Radiologists: 0.94 |
Treatment Recommendation | Guideline Adherence | 95.2% | Clinical practice: 79.8% |
Hospital Readmission Prediction | AUROC | 0.82 | LACE Index: 0.76 |
⚠️ Important
While our models demonstrate strong performance, they are designed to augment clinical decision-making, not replace it. All outputs should be reviewed by qualified healthcare professionals before clinical implementation.
Explainability and Transparency
We prioritize model explainability to promote trust and understanding of our AI's recommendations:
Evidence Tracing
All model outputs include references to the specific evidence considered:
{
"primary_diagnosis": {
"condition": "Community-Acquired Pneumonia",
"confidence_score": 0.87,
"icd10_code": "J18.9",
"evidence": [
{
"factor": "Fever (38.5°C)",
"contribution": "positive",
"weight": 0.65
},
{
"factor": "Cough with sputum production",
"contribution": "positive",
"weight": 0.72
},
{
"factor": "Crackles on auscultation",
"contribution": "positive",
"weight": 0.83
},
{
"factor": "Recent travel history",
"contribution": "negative",
"weight": -0.15
}
],
"references": [
{
"title": "Community-Acquired Pneumonia in Adults: Diagnosis and Management",
"source": "American Family Physician",
"year": 2022,
"url": "https://www.aafp.org/pubs/afp/issues/2022/..."
}
]
}
}
Feature Attribution
For imaging analysis, we provide visual overlays highlighting the regions contributing to the model's conclusion:
[Visualization showing a chest X-ray with heat map overlay highlighting an area of consolidation in the right lower lobe]
Confidence Reporting
All predictions include calibrated confidence scores and uncertainty estimates:
"Primary diagnosis: Community-Acquired Pneumonia (87% confidence, range: 82-91%)"
"Differential diagnoses: Acute Bronchitis (42%, range: 36-49%), Influenza (28%, range: 22-34%)"
Model Cards
For each model, we provide detailed documentation about:
- Training methodology and datasets
- Performance characteristics across different patient demographics
- Known limitations and edge cases
- Validation procedures and results
- Safety guardrails and monitoring
Responsible AI Practices
Bias Mitigation
We employ multiple strategies to detect and mitigate biases in our models:
- Diverse and representative training data across demographics
- Regular fairness audits across different patient populations
- Bias detection algorithms integrated into the model pipeline
- Continuous monitoring of performance across demographic groups
- Adjustment of model weights to ensure equitable performance
Privacy Protection
Our models are designed with privacy at their core:
- Trained on anonymized and de-identified data
- Differential privacy techniques applied during training
- No patient-specific data stored within model parameters
- HIPAA-compliant data handling and processing
Human Oversight
We maintain rigorous human oversight of our AI systems:
- Clinical advisory board reviews all model updates
- Regular clinician review of model outputs
- Anomaly detection systems flag unusual predictions for human review
- Clear escalation pathways for concerning model behaviors
ℹ️ Ethical AI Commitment
Telesoft is committed to the ethical development and deployment of AI in healthcare. We adhere to principles of transparency, fairness, reliability, safety, privacy, and security, and continually engage with healthcare stakeholders to ensure our technology serves patient and provider needs responsibly.
Model Customization
Our AI platform offers various levels of customization to meet specific clinical needs:
Fine-Tuning
Enterprise customers can fine-tune our base models using their own data to address specific use cases:
- Specialty-specific diagnostic models
- Institution-specific treatment protocols
- Regional disease prevalence adaptations
- Specific medical device or EHR integration patterns
Learn more about fine-tuning in our Fine-Tuning documentation.
Parameter Adjustment
Adjust model parameters through the API to change behavior without retraining:
// Configure diagnostic model parameters
const diagnosticOptions = {
sensitivity: 0.8, // Increase sensitivity (0.0-1.0)
specificity_preference: 0.7, // Preference for specificity vs. sensitivity
min_confidence_threshold: 0.6, // Minimum confidence to include in results
include_rare_conditions: true, // Include rare conditions in differential
max_differential_diagnoses: 10 // Maximum number of alternatives to return
};
// Make API call with custom parameters
const analysis = await telesoft.diagnostics.analyze({
patientData,
options: diagnosticOptions
});
Knowledge Base Updates
Enterprise customers can augment our models with custom knowledge:
- Institution-specific clinical guidelines
- Formulary restrictions and preferences
- Local best practices and protocols
- Recently published research not yet in model updates
Getting Started with ML Features
To leverage our machine learning capabilities in your application:
- Select the appropriate endpoint for your use case (diagnostics, imaging, treatment recommendations)
- Prepare input data according to the API schema, including patient information and relevant clinical data
- Configure model parameters to adjust behavior for your specific needs
- Process and interpret results using the provided confidence scores and explanations
- Implement appropriate UI to present AI insights to clinicians in a clear, actionable format
// Example: Basic diagnostic analysis
const analysis = await telesoft.diagnostics.analyze({
patientData: {
age: 45,
sex: "female",
symptoms: ["cough", "fever", "shortness of breath"],
duration: "5 days",
medicalHistory: ["hypertension", "type 2 diabetes"],
medications: ["lisinopril", "metformin"],
vitalSigns: {
temperature: 38.5,
heartRate: 92,
respiratoryRate: 20,
bloodPressure: { systolic: 138, diastolic: 85 },
oxygenSaturation: 94
},
labResults: [
{ test: "WBC", value: 12.3, unit: "thousand/µL", reference: "4.5-11.0" },
{ test: "CRP", value: 45, unit: "mg/L", reference: "<10" }
]
},
options: {
includeConfidenceScores: true,
includeEvidence: true,
includeReferences: true,
includeRecommendations: true
}
});
// Process results
console.log(`Primary diagnosis: ${analysis.primaryDiagnosis.condition}`);
console.log(`Confidence: ${analysis.primaryDiagnosis.confidenceScore * 100}%`);
// Display differential diagnoses
analysis.differentialDiagnoses.forEach((diagnosis, index) => {
console.log(`${index + 1}. ${diagnosis.condition} (${diagnosis.confidenceScore * 100}%)`);
});
// Access recommended next steps
analysis.recommendations.diagnosticTests.forEach(test => {
console.log(`Recommended test: ${test.name} - ${test.rationale}`);
});
💡 Pro Tip
When designing clinical decision support systems with our AI, provide both the model's recommendation and its reasoning. This allows clinicians to quickly evaluate whether the AI's thought process aligns with their own clinical judgment.