Training Data

Overview

Timepoint Pro generates high-quality training data for fine-tuning language models. Unlike naive prompt/completion pairs, SNAG-generated data includes:

Full causal ancestry - Every knowledge item has provenance
Quantitative state tensors - Emotional valence, arousal, energy at each turn
Temporal consistency - Portal mode strips anachronistic knowledge
Counterfactual reasoning - Branching mode shows “what if” alternatives
Rich context - M3 knowledge provenance, M6 entity state, M7 causal history, M10 atmosphere, M11 dialog context, M13 relationships

This makes SNAG data uniquely valuable for training:

Causal reasoning models
Multi-agent roleplay models
Temporal reasoning systems
Social simulation models

Export Formats

TDF (Timepoint Data Format)

TDF is the canonical interchange format for the Timepoint Suite (Flash, Pro, Clockchain, SNAG-Bench, Proteus). Export via API:

GET /api/data-export/{run_id}

Returns:

{
  "run_id": "run_abc123",
  "entities": [...],
  "dialogs": [...],
  "causal_edges": [...],
  "metadata": {
    "mechanisms": ["M3", "M7", "M11", "M13"],
    "temporal_mode": "portal",
    "cost_usd": 0.42,
    "token_count": 12847
  }
}

TDF package integration: Timepoint Pro uses the canonical timepoint-tdf package:

from timepoint_tdf import from_pro, write_tdf_jsonl

# Convert Pro run to TDF
tdf_data = from_pro(run_id, store)

# Write to JSONL
write_tdf_jsonl(tdf_data, "output.jsonl")

TDF schema:

{
  "@context": "https://timepoint.ai/tdf/v1",
  "@type": "RenderedFuture",
  "run_id": "run_abc123",
  "scenario": "mars_mission_portal",
  "temporal_mode": "portal",
  "entities": [
    {
      "entity_id": "Webb",
      "entity_type": "human",
      "tensor": {...},
      "metadata": {...}
    }
  ],
  "timepoints": [
    {
      "timepoint_id": "T1",
      "timestamp": "2026-03-01T14:00:00Z",
      "entities_present": ["Webb", "Chen"],
      "causal_antecedents": ["T0"]
    }
  ],
  "dialogs": [...],
  "causal_graph": {
    "nodes": [...],
    "edges": [...]
  },
  "provenance": {
    "generated_at": "2026-03-06T12:00:00Z",
    "model": "meta-llama/llama-3.1-70b-instruct",
    "cost_usd": 0.42
  }
}

JSONL (Training Format)

Prompt/completion pairs for fine-tuning: Enable in template:

"outputs": {
  "export_ml_dataset": true
}

Example JSONL record:

{
  "prompt": "[INST] You are Webb, mission commander. Current state: emotional_valence=-0.2, emotional_arousal=0.6, energy_budget=72. You know: ['Mission timeline', 'O2 scrubber threshold 800 ppm', 'Current reading 847 ppm']. Relationships: Chen (colleague, trusted). Recent: Sensor alert 2 hours ago. Generate your next dialog turn. [/INST]",
  "completion": "The reading's at 847. That's 6% over spec. Chen, run a calibration check. If it's still high in 30 minutes, we scrub the EVA.",
  "metadata": {
    "timepoint_id": "T2",
    "speaker": "Webb",
    "archetype": "military_commander",
    "mechanism": "M11",
    "emotional_valence": -0.2,
    "emotional_arousal": 0.6,
    "training_safe": true
  }
}

Sample file: See examples/sample_training_data.jsonl for complete examples from Portal mode simulations.

SQLite Export

Full simulation state in relational format:

# Simulation runs stored in metadata/runs.db
sqlite3 metadata/runs.db

sqlite> SELECT run_id, status, cost_usd, created_at FROM runs;

Tables:

runs - Run metadata
entities - Entity tensors and metadata
timepoints - Temporal structure
dialogs - Conversation turns
causal_edges - Causal graph structure
exposure_events - Knowledge propagation (M3)

Oxen.ai Auto-Upload

Automatic versioned dataset upload:

export OXEN_API_KEY=your_key
./run.sh run mars_mission_portal
# Automatically uploads to Oxen.ai with run metadata

Upload triggers:

export_ml_dataset=true in template
OXEN_API_KEY environment variable set
Run completes successfully

Oxen dataset structure:

timepoint-pro-training-data/
├── runs/
│   ├── run_abc123/
│   │   ├── training_data.jsonl
│   │   ├── tdf_export.json
│   │   └── metadata.json

Model Licensing

CRITICAL: Not all open-source models allow unrestricted use of outputs for training data.

License Matrix

License	Models	Training Data Status
MIT	DeepSeek Chat, DeepSeek R1	✅ Fully unrestricted—outputs can train any model
Apache 2.0	Mistral 7B, Mixtral 8x7B, Mixtral 8x22B	✅ Fully unrestricted—outputs can train any model
Llama	Llama 3.1 8B/70B/405B, Llama 4 Scout	⚠️ Restricted—Meta’s license prohibits using Llama outputs to train non-Llama models
Qwen	Qwen 2.5 7B/72B, QwQ 32B	✅ Permissive for most uses

Default Behavior: M18 Filtering

The model selector (M18) automatically filters to training-safe models:

from llm_service.model_selector import ModelSelector, ActionType

selector = ModelSelector()

# Automatically filters to MIT/Apache-2.0 models
model = selector.select_model(
    ActionType.DIALOG_SYNTHESIS,
    for_training_data=True  # Only unrestricted licenses
)
# Returns: "deepseek/deepseek-chat" or "mistralai/mixtral-8x7b-instruct"

When for_training_data=True:

Llama models excluded (license restricts training non-Llama models)
Only MIT and Apache-2.0 licensed models used
Oxen.ai upload uses this filter automatically

Check Training-Safe Models

selector = ModelSelector()
training_safe = selector.get_training_safe_models()

print(training_safe)
# ['deepseek/deepseek-chat', 'deepseek/deepseek-r1', 
#  'mistralai/mixtral-8x7b-instruct', 'mistralai/mixtral-8x22b-instruct']

Explicitly Use Training-Safe Models

In CLI:

# Force training-safe model
./run.sh run --model deepseek/deepseek-r1 mars_mission_portal

In template:

{
  "temporal": {
    "mode": "forward"
  },
  "llm_config": {
    "default_model": "deepseek/deepseek-chat",
    "for_training_data": true
  }
}

License Implications

If using Llama outputs:

✅ Can fine-tune Llama models (same family)
❌ Cannot fine-tune Qwen, Mistral, DeepSeek, or custom models
❌ Cannot upload to public datasets (e.g., Hugging Face)

If using MIT/Apache-2.0 outputs:

✅ Can fine-tune any model
✅ Can upload to public datasets
✅ Can use commercially without restrictions

Recommendation: If you plan to fine-tune non-Llama models or create public datasets, always use:

./run.sh run --model deepseek/deepseek-r1 your_template

Training Data Quality

Why SNAG Data is Superior

Standard training data:

{
  "prompt": "You are a commander. Generate a dialog turn.",
  "completion": "We need to check the systems."
}

SNAG training data:

{
  "prompt": "[INST] You are Webb (military_commander archetype). State: emotional_valence=-0.2, arousal=0.6, energy=72. Knowledge provenance: 'O2 reading 847 ppm' (learned from Chen at T1, confidence 0.9), 'Threshold 800 ppm' (mission briefing T0). Relationships: Chen +0.3 trust. Causal history: Sensor alert → Disagreement with Chen → Current timepoint. Portal mode: T3 of 5, working backward from mission failure. Context: Late afternoon (circadian penalty 1.0), confined space (atmosphere: tension 0.7). Character arc: 2 prior data_arguments dismissed by crew. Generate your next dialog turn responding to Chen's concern about the O2 reading. [/INST]",
  "completion": "The reading's at 847. That's 6% over spec. Chen, run a calibration check. If it's still high in 30 minutes, we scrub the EVA.",
  "metadata": {
    "mechanisms": ["M3", "M6", "M7", "M8", "M10", "M11", "M13"],
    "temporal_mode": "portal",
    "archetype": "military_commander",
    "training_safe": true
  }
}

The SNAG version includes:

✅ Quantitative emotional state
✅ Knowledge provenance (who told them, when, confidence)
✅ Causal history leading to this moment
✅ Relationship dynamics
✅ Character arc (past failures influencing tactics)
✅ Circadian and atmospheric context
✅ Temporal mode constraints (Portal backward reasoning)

This trains models on how social state influences language, not just language patterns.

Data Diversity

Generate diverse training sets using: Branching mode:

"temporal": {
  "mode": "branching",
  "enable_counterfactuals": true,
  "path_count": 5
}

Produces 5 timeline variants from the same initial conditions → diverse outputs. Variations:

"variations": {
  "enabled": true,
  "count": 10,
  "strategies": ["vary_personalities", "vary_outcomes"],
  "deduplication_threshold": 0.9
}

Runs the same scenario 10 times with varied entity personalities → diverse character voices.

Use Cases

Fine-Tuning Causal Reasoning Models

Portal mode data trains models to reason backward from outcomes:

./run.sh run --mode portal mars_mission_portal

Training objective:

Given outcome: "Mission fails due to life support failure"
Generate: Plausible causal chain of antecedent states

Fine-Tuning Roleplay Models

Dialog with archetype profiles trains character consistency:

./run.sh run board_meeting

Training objective:

Given personality traits + archetype + emotional state:
Generate: Contextually appropriate dialog in character voice

Fine-Tuning Multi-Agent Models

Branching mode trains models to predict divergent outcomes:

./run.sh run castaway_colony_branching

Training objective:

Given initial state + intervention:
Generate: Divergent timeline showing causal consequences

Diffusion Model Conditioning

Future use case: Train diffusion models conditioned on temporal causal graphs:

# Hypothetical future API
model.train(
    condition=causal_graph,
    target=entity_states,
    objective="predict_future_state"
)

Best Practices

Balance Quality and Quantity

High-quality (expensive):

./run.sh run --model meta-llama/llama-3.1-405b-instruct mars_mission_portal
# Cost: ~$2.00 per run
# Quality: Excellent causal reasoning

Medium-quality (balanced):

./run.sh run --model meta-llama/llama-3.1-70b-instruct mars_mission_portal
# Cost: ~$0.40 per run
# Quality: Good for most use cases

High-volume (cheap):

./run.sh run --model deepseek/deepseek-chat convergence/simple
# Cost: ~$0.02 per run
# Quality: Acceptable for bulk data

Filter by Mechanism

Generate data targeting specific capabilities:

# Causal reasoning: M3 + M7
templates = ["mars_mission_portal", "agent3_litigation_portal"]

# Multi-agent negotiation: M11 + M13
templates = ["board_meeting", "vc_pitch_branching"]

# Embodied cognition: M8 + M14
templates = ["hospital_crisis"]

# Counterfactual reasoning: M12
templates = ["castaway_colony_branching", "agent2_mission_failure"]

Validate Data Quality

Run convergence tests to verify data stability:

./run.sh run convergence/simple --repeat 5
# Check Jaccard similarity > 0.7 across runs

High convergence = reliable training data.

Version Control with Oxen

Use Oxen.ai to track dataset lineage:

export OXEN_API_KEY=your_key

# Each run automatically tagged with:
# - Template name
# - Temporal mode
# - Mechanism set
# - Model used
# - Cost and token count

Query historical runs:

oxen log --filter "temporal_mode=portal" --filter "cost_usd<0.50"

Data Privacy

Local-only by default:

All data stays in metadata/runs.db
No external services called unless explicitly configured

Cloud upload (opt-in):

Requires OXEN_API_KEY set
Only uploads when export_ml_dataset=true

Sensitive scenarios: For proprietary or sensitive scenarios:

"outputs": {
  "export_ml_dataset": false  // Disable dataset export
}

Data remains local in SQLite.

Next Steps

Learn about Cost Optimization to balance training data quality and cost
Read Validation to understand data quality checks
Explore Templates to configure training data export settings

Getting Started

Core Concepts

Temporal Modes

Mechanisms

Guides

Examples

Overview

Export Formats

TDF (Timepoint Data Format)

JSONL (Training Format)

SQLite Export

Oxen.ai Auto-Upload

Model Licensing

License Matrix

Default Behavior: M18 Filtering

Check Training-Safe Models

Explicitly Use Training-Safe Models

License Implications

Training Data Quality

Why SNAG Data is Superior

Data Diversity

Use Cases

Fine-Tuning Causal Reasoning Models

Fine-Tuning Roleplay Models

Fine-Tuning Multi-Agent Models

Diffusion Model Conditioning

Best Practices

Balance Quality and Quantity

Filter by Mechanism

Validate Data Quality

Version Control with Oxen

Data Privacy

Next Steps

Getting Started

Core Concepts

Temporal Modes

Mechanisms

Guides

Examples

​Overview

​Export Formats

​TDF (Timepoint Data Format)

​JSONL (Training Format)

​SQLite Export

​Oxen.ai Auto-Upload

​Model Licensing

​License Matrix

​Default Behavior: M18 Filtering

​Check Training-Safe Models

​Explicitly Use Training-Safe Models

​License Implications

​Training Data Quality

​Why SNAG Data is Superior

​Data Diversity

​Use Cases

​Fine-Tuning Causal Reasoning Models

​Fine-Tuning Roleplay Models

​Fine-Tuning Multi-Agent Models

​Diffusion Model Conditioning

​Best Practices

​Balance Quality and Quantity

​Filter by Mechanism

​Validate Data Quality

​Version Control with Oxen

​Data Privacy

​Next Steps

Overview

Export Formats

TDF (Timepoint Data Format)

JSONL (Training Format)

SQLite Export

Oxen.ai Auto-Upload

Model Licensing

License Matrix

Default Behavior: M18 Filtering

Check Training-Safe Models

Explicitly Use Training-Safe Models

License Implications

Training Data Quality

Why SNAG Data is Superior

Data Diversity

Use Cases

Fine-Tuning Causal Reasoning Models

Fine-Tuning Roleplay Models

Fine-Tuning Multi-Agent Models

Diffusion Model Conditioning

Best Practices

Balance Quality and Quantity

Filter by Mechanism

Validate Data Quality

Version Control with Oxen

Data Privacy

Next Steps