// Self-learning workflow system that tracks what works best for your use cases. Records experiment results, suggests optimizations, creates custom templates, and builds a personal knowledge base. Use to learn from experience and optimize your LLM workflows over time.
Create, clean, and optimize datasets for LLM fine-tuning. Covers formats (Alpaca, ShareGPT, ChatML), synthetic data generation, quality assessment, and augmentation. Use when preparing data for training.
Export and deploy fine-tuned models to production. Covers GGUF/Ollama, vLLM, HuggingFace Hub, Docker, quantization, and platform selection. Use after fine-tuning when you need to deploy models efficiently.
Advanced techniques for optimizing LLM fine-tuning. Covers learning rates, LoRA configuration, batch sizes, gradient strategies, hyperparameter tuning, and monitoring. Use when fine-tuning models for best performance.
Train and use SuperBPE tokenizers for 20-33% token reduction across any project. Covers training, optimization, validation, and integration with any LLM framework. Use when you need efficient tokenization, want to reduce API costs, or maximize context windows.
Analyze, compare, and work with tokenizers using Unsloth tools. Compare different tokenizers, analyze token efficiency, and integrate with Unsloth models. For SuperBPE training, see the 'superbpe' skill.
Fine-tune LLMs 2x faster with 80% less memory using Unsloth. Use when the user wants to fine-tune models like Llama, Mistral, Phi, or Gemma. Handles model loading, LoRA configuration, training, and model export.
| name | adaptive-workflows |
| description | Self-learning workflow system that tracks what works best for your use cases. Records experiment results, suggests optimizations, creates custom templates, and builds a personal knowledge base. Use to learn from experience and optimize your LLM workflows over time. |
Build a self-learning system that gets better with every experiment you run.
Learn from experience:
import json
from datetime import datetime
from pathlib import Path
class WorkflowTracker:
def __init__(self, storage_path="./workflows.json"):
self.storage_path = Path(storage_path)
self.experiments = self.load_experiments()
def load_experiments(self):
"""Load previous experiments"""
if self.storage_path.exists():
with open(self.storage_path, 'r') as f:
return json.load(f)
return []
def save_experiments(self):
"""Save experiments to disk"""
with open(self.storage_path, 'w') as f:
json.dump(self.experiments, f, indent=2)
def record_experiment(self, experiment: dict):
"""Record a new experiment"""
experiment['timestamp'] = datetime.now().isoformat()
experiment['id'] = len(self.experiments)
self.experiments.append(experiment)
self.save_experiments()
return experiment['id']
# Initialize
tracker = WorkflowTracker()
# After training
experiment = {
'task': 'medical_qa_finetuning',
'model': 'Llama-3.2-7B',
'dataset_size': 1000,
'hyperparameters': {
'learning_rate': 2e-4,
'lora_rank': 16,
'batch_size': 8,
'epochs': 3
},
'results': {
'final_loss': 0.42,
'training_time_hours': 2.5,
'cost_usd': 5.20,
'eval_accuracy': 0.89
},
'notes': 'Worked well, converged smoothly'
}
tracker.record_experiment(experiment)
# Get recommendations for similar task
recommendations = tracker.suggest_config(
task='medical_qa_finetuning',
constraints={'cost': 10, 'time_hours': 4}
)
print(f"Recommended learning rate: {recommendations['learning_rate']}")
print(f"Recommended rank: {recommendations['lora_rank']}")
experiment_schema = {
# Identifiers
'id': 'auto-generated',
'timestamp': 'ISO-8601',
'task': 'task_category', # e.g., 'medical_qa', 'code_generation'
# Model configuration
'model': {
'base_model': 'Llama-3.2-7B',
'quantization': '4bit',
'max_seq_length': 2048
},
# Dataset
'dataset': {
'name': 'medical_qa_v1',
'size': 1000,
'format': 'alpaca',
'quality_score': 0.85,
'source': 'synthetic'
},
# Hyperparameters
'hyperparameters': {
'learning_rate': 2e-4,
'lr_scheduler': 'cosine',
'warmup_ratio': 0.03,
'lora_rank': 16,
'lora_alpha': 16,
'batch_size': 8,
'gradient_accumulation': 1,
'epochs': 3,
'weight_decay': 0.01
},
# Results
'results': {
'final_loss': 0.42,
'best_loss': 0.38,
'eval_loss': 0.45,
'eval_accuracy': 0.89,
'training_time_hours': 2.5,
'cost_usd': 5.20,
'tokens_per_sec': 1200,
'peak_memory_gb': 18.5
},
# Deployment
'deployment': {
'format': 'GGUF',
'quantization': 'q4_k_m',
'deployment_platform': 'Ollama',
'inference_speed_tok_s': 50
},
# Evaluation
'evaluation': {
'test_accuracy': 0.87,
'human_eval_score': 4.2, # out of 5
'sample_outputs': ['...', '...'],
'issues_found': ['Occasional hallucination on rare conditions']
},
# Metadata
'tags': ['medical', 'qa', 'production'],
'success': True,
'notes': 'Worked well. Deployed to production.',
'git_commit': 'abc123'
}
class ExperimentTracker(WorkflowTracker):
def track_training_run(
self,
task: str,
config: dict,
trainer, # SFTTrainer instance
dataset_info: dict
):
"""Automatically track a training run"""
experiment = {
'task': task,
'model': config['model_name'],
'dataset': dataset_info,
'hyperparameters': {
'learning_rate': config['learning_rate'],
'lora_rank': config['lora_rank'],
'lora_alpha': config['lora_alpha'],
'batch_size': config['batch_size'],
'epochs': config['num_epochs']
}
}
# Train
import time
start_time = time.time()
result = trainer.train()
training_time = (time.time() - start_time) / 3600 # hours
# Record results
experiment['results'] = {
'final_loss': result.training_loss,
'training_time_hours': training_time,
'cost_usd': self.estimate_cost(training_time, config['gpu_type'])
}
# Save
exp_id = self.record_experiment(experiment)
print(f"Experiment {exp_id} recorded")
return exp_id
def estimate_cost(self, hours: float, gpu_type: str) -> float:
"""Estimate training cost"""
gpu_costs = {
'RTX_4090': 0.40,
'A100': 1.50,
'H100': 3.00
}
return hours * gpu_costs.get(gpu_type, 1.0)
# Usage
tracker = ExperimentTracker()
exp_id = tracker.track_training_run(
task='medical_qa',
config={...},
trainer=trainer,
dataset_info={...}
)
class PatternAnalyzer(ExperimentTracker):
def find_best_experiments(
self,
task: str,
metric: str = 'eval_accuracy',
top_k: int = 5
):
"""Find top performing experiments for a task"""
# Filter by task
task_experiments = [
exp for exp in self.experiments
if exp['task'] == task and 'results' in exp
]
# Sort by metric
sorted_exps = sorted(
task_experiments,
key=lambda x: x['results'].get(metric, 0),
reverse=True
)
return sorted_exps[:top_k]
def analyze_hyperparameter_impact(self, task: str, hyperparameter: str):
"""Analyze how a hyperparameter affects results"""
task_exps = [exp for exp in self.experiments if exp['task'] == task]
# Group by hyperparameter value
from collections import defaultdict
groups = defaultdict(list)
for exp in task_exps:
value = exp['hyperparameters'].get(hyperparameter)
if value and 'results' in exp:
groups[value].append(exp['results'].get('eval_accuracy', 0))
# Calculate averages
analysis = {
value: {
'count': len(scores),
'mean_accuracy': np.mean(scores),
'std': np.std(scores)
}
for value, scores in groups.items()
}
return analysis
# Usage
analyzer = PatternAnalyzer()
# Find best medical QA experiments
best = analyzer.find_best_experiments('medical_qa', top_k=3)
for exp in best:
print(f"Experiment {exp['id']}: {exp['results']['eval_accuracy']:.3f}")
# Analyze learning rate impact
lr_analysis = analyzer.analyze_hyperparameter_impact('medical_qa', 'learning_rate')
for lr, stats in lr_analysis.items():
print(f"LR {lr}: {stats['mean_accuracy']:.3f} ± {stats['std']:.3f}")
def detect_patterns(self, task: str):
"""Detect what makes experiments successful"""
successful = [
exp for exp in self.experiments
if exp['task'] == task
and exp['results'].get('eval_accuracy', 0) > 0.85
]
failed = [
exp for exp in self.experiments
if exp['task'] == task
and exp['results'].get('eval_accuracy', 0) < 0.70
]
patterns = {}
# Analyze each hyperparameter
for hyperparam in ['learning_rate', 'lora_rank', 'batch_size']:
success_values = [
exp['hyperparameters'][hyperparam]
for exp in successful
if hyperparam in exp['hyperparameters']
]
fail_values = [
exp['hyperparameters'][hyperparam]
for exp in failed
if hyperparam in exp['hyperparameters']
]
patterns[hyperparam] = {
'success_mean': np.mean(success_values),
'success_std': np.std(success_values),
'fail_mean': np.mean(fail_values),
'fail_std': np.std(fail_values),
'recommendation': 'Use higher value' if np.mean(success_values) > np.mean(fail_values) else 'Use lower value'
}
return patterns
class ConfigRecommender(PatternAnalyzer):
def suggest_config(
self,
task: str,
constraints: dict = None
):
"""Suggest optimal configuration based on past experiments"""
# Get successful experiments
successful_exps = [
exp for exp in self.experiments
if exp['task'] == task
and exp['results'].get('eval_accuracy', 0) > 0.80
]
if not successful_exps:
return self.get_default_config(task)
# Apply constraints
if constraints:
successful_exps = self.filter_by_constraints(
successful_exps,
constraints
)
if not successful_exps:
return self.get_default_config(task)
# Find best configuration
best_exp = max(
successful_exps,
key=lambda x: x['results'].get('eval_accuracy', 0)
)
# Extract configuration
recommended = {
'model': best_exp['model'],
'hyperparameters': best_exp['hyperparameters'],
'dataset': best_exp['dataset'],
'confidence': self.calculate_confidence(successful_exps),
'based_on_experiments': len(successful_exps),
'expected_accuracy': best_exp['results'].get('eval_accuracy'),
'expected_cost': best_exp['results'].get('cost_usd'),
'expected_time_hours': best_exp['results'].get('training_time_hours')
}
return recommended
def filter_by_constraints(self, experiments, constraints):
"""Filter experiments by constraints"""
filtered = experiments
if 'max_cost' in constraints:
filtered = [
exp for exp in filtered
if exp['results'].get('cost_usd', float('inf')) <= constraints['max_cost']
]
if 'max_time_hours' in constraints:
filtered = [
exp for exp in filtered
if exp['results'].get('training_time_hours', float('inf')) <= constraints['max_time_hours']
]
if 'min_accuracy' in constraints:
filtered = [
exp for exp in filtered
if exp['results'].get('eval_accuracy', 0) >= constraints['min_accuracy']
]
return filtered
def calculate_confidence(self, experiments):
"""Calculate confidence in recommendation"""
if len(experiments) >= 10:
return 'high'
elif len(experiments) >= 5:
return 'medium'
else:
return 'low'
# Usage
recommender = ConfigRecommender()
# Get recommendation with constraints
config = recommender.suggest_config(
task='medical_qa',
constraints={
'max_cost': 10,
'max_time_hours': 3,
'min_accuracy': 0.85
}
)
print(f"Recommended learning rate: {config['hyperparameters']['learning_rate']}")
print(f"Expected accuracy: {config['expected_accuracy']:.3f}")
print(f"Confidence: {config['confidence']}")
print(f"Based on {config['based_on_experiments']} similar experiments")
def suggest_improvements(self, exp_id: int):
"""Suggest improvements for a specific experiment"""
exp = self.experiments[exp_id]
suggestions = []
# Compare to best experiments
best_exps = self.find_best_experiments(exp['task'], top_k=3)
if not best_exps:
return ["Not enough data for comparison"]
best_exp = best_exps[0]
current_accuracy = exp['results'].get('eval_accuracy', 0)
best_accuracy = best_exp['results'].get('eval_accuracy', 0)
if current_accuracy < best_accuracy:
# Compare hyperparameters
for hyperparam in ['learning_rate', 'lora_rank', 'batch_size']:
current_value = exp['hyperparameters'].get(hyperparam)
best_value = best_exp['hyperparameters'].get(hyperparam)
if current_value != best_value:
suggestions.append({
'parameter': hyperparam,
'current': current_value,
'suggested': best_value,
'reason': f'Top experiment uses {best_value}',
'expected_improvement': (best_accuracy - current_accuracy) * 100
})
# Check for common issues
if exp['results'].get('training_time_hours', 0) > 5:
suggestions.append({
'issue': 'slow_training',
'suggestion': 'Increase batch size or reduce gradient accumulation',
'impact': 'Faster training'
})
if exp['results'].get('final_loss') > exp['results'].get('best_loss', float('inf')) * 1.5:
suggestions.append({
'issue': 'unstable_training',
'suggestion': 'Reduce learning rate or add gradient clipping',
'impact': 'More stable convergence'
})
return suggestions
class WorkflowTemplateManager(ConfigRecommender):
def __init__(self, storage_path="./workflows.json"):
super().__init__(storage_path)
self.templates = self.load_templates()
def load_templates(self):
"""Load workflow templates"""
template_path = Path(self.storage_path).parent / "templates.json"
if template_path.exists():
with open(template_path, 'r') as f:
return json.load(f)
return []
def save_templates(self):
"""Save templates"""
template_path = Path(self.storage_path).parent / "templates.json"
with open(template_path, 'w') as f:
json.dump(self.templates, f, indent=2)
def create_template(
self,
name: str,
exp_id: int,
description: str = ""
):
"""Create a reusable template from successful experiment"""
exp = self.experiments[exp_id]
template = {
'name': name,
'description': description,
'task': exp['task'],
'created_from': exp_id,
'created_at': datetime.now().isoformat(),
'config': {
'model': exp['model'],
'dataset': exp['dataset'],
'hyperparameters': exp['hyperparameters']
},
'expected_results': exp['results'],
'usage_count': 0
}
self.templates.append(template)
self.save_templates()
return template
def use_template(self, template_name: str, overrides: dict = None):
"""Use a template with optional overrides"""
template = next(
(t for t in self.templates if t['name'] == template_name),
None
)
if not template:
raise ValueError(f"Template '{template_name}' not found")
# Start with template config
config = template['config'].copy()
# Apply overrides
if overrides:
for key, value in overrides.items():
if '.' in key: # Nested key like 'hyperparameters.learning_rate'
parts = key.split('.')
d = config
for part in parts[:-1]:
d = d[part]
d[parts[-1]] = value
else:
config[key] = value
# Update usage count
template['usage_count'] += 1
self.save_templates()
return config
def list_templates(self, task: str = None):
"""List available templates"""
templates = self.templates
if task:
templates = [t for t in templates if t['task'] == task]
return [
{
'name': t['name'],
'task': t['task'],
'description': t['description'],
'usage_count': t['usage_count'],
'expected_accuracy': t['expected_results'].get('eval_accuracy')
}
for t in templates
]
# Usage
manager = WorkflowTemplateManager()
# Create template from best experiment
template = manager.create_template(
name='medical_qa_standard',
exp_id=42, # ID of successful experiment
description='Standard configuration for medical Q&A fine-tuning'
)
# Use template
config = manager.use_template(
'medical_qa_standard',
overrides={'hyperparameters.learning_rate': 3e-4}
)
# List templates
templates = manager.list_templates(task='medical_qa')
for t in templates:
print(f"{t['name']}: {t['expected_accuracy']:.3f} accuracy (used {t['usage_count']} times)")
class ABTester(WorkflowTemplateManager):
def setup_ab_test(
self,
task: str,
config_a: dict,
config_b: dict,
test_name: str,
num_runs: int = 3
):
"""Setup A/B test to compare two configurations"""
test = {
'name': test_name,
'task': task,
'config_a': config_a,
'config_b': config_b,
'num_runs': num_runs,
'completed_runs': 0,
'results_a': [],
'results_b': [],
'status': 'pending'
}
# Save test
tests_path = Path(self.storage_path).parent / "ab_tests.json"
tests = []
if tests_path.exists():
with open(tests_path, 'r') as f:
tests = json.load(f)
tests.append(test)
with open(tests_path, 'w') as f:
json.dump(tests, f, indent=2)
return test
def record_ab_result(
self,
test_name: str,
config: str, # 'a' or 'b'
results: dict
):
"""Record results from one run of A/B test"""
tests_path = Path(self.storage_path).parent / "ab_tests.json"
with open(tests_path, 'r') as f:
tests = json.load(f)
# Find test
test = next((t for t in tests if t['name'] == test_name), None)
if not test:
raise ValueError(f"Test '{test_name}' not found")
# Record result
if config == 'a':
test['results_a'].append(results)
else:
test['results_b'].append(results)
test['completed_runs'] += 1
# Check if complete
if (len(test['results_a']) >= test['num_runs'] and
len(test['results_b']) >= test['num_runs']):
test['status'] = 'complete'
test['analysis'] = self.analyze_ab_results(test)
# Save
with open(tests_path, 'w') as f:
json.dump(tests, f, indent=2)
return test
def analyze_ab_results(self, test: dict):
"""Analyze A/B test results"""
results_a = test['results_a']
results_b = test['results_b']
# Extract metrics
accuracy_a = [r['eval_accuracy'] for r in results_a]
accuracy_b = [r['eval_accuracy'] for r in results_b]
cost_a = [r['cost_usd'] for r in results_a]
cost_b = [r['cost_usd'] for r in results_b]
time_a = [r['training_time_hours'] for r in results_a]
time_b = [r['training_time_hours'] for r in results_b]
# Statistical analysis
from scipy import stats
# T-test for accuracy
t_stat, p_value = stats.ttest_ind(accuracy_a, accuracy_b)
analysis = {
'accuracy': {
'config_a_mean': np.mean(accuracy_a),
'config_a_std': np.std(accuracy_a),
'config_b_mean': np.mean(accuracy_b),
'config_b_std': np.std(accuracy_b),
'difference': np.mean(accuracy_b) - np.mean(accuracy_a),
'p_value': p_value,
'significant': p_value < 0.05
},
'cost': {
'config_a_mean': np.mean(cost_a),
'config_b_mean': np.mean(cost_b),
'difference': np.mean(cost_b) - np.mean(cost_a)
},
'time': {
'config_a_mean': np.mean(time_a),
'config_b_mean': np.mean(time_b),
'difference': np.mean(time_b) - np.mean(time_a)
},
'winner': 'b' if np.mean(accuracy_b) > np.mean(accuracy_a) else 'a',
'recommendation': self.generate_recommendation(
accuracy_a, accuracy_b,
cost_a, cost_b,
time_a, time_b
)
}
return analysis
def generate_recommendation(
self,
accuracy_a, accuracy_b,
cost_a, cost_b,
time_a, time_b
):
"""Generate recommendation from A/B test"""
acc_diff = np.mean(accuracy_b) - np.mean(accuracy_a)
cost_diff = np.mean(cost_b) - np.mean(cost_a)
time_diff = np.mean(time_b) - np.mean(time_a)
if acc_diff > 0.02: # B is 2% better
if cost_diff < 5: # And not much more expensive
return "Use Config B: significantly better accuracy at similar cost"
else:
return f"Use Config B if budget allows: {acc_diff*100:.1f}% better accuracy, ${cost_diff:.2f} more expensive"
elif acc_diff < -0.02: # A is better
return "Use Config A: better accuracy"
else: # Similar accuracy
if cost_diff < -2: # B is cheaper
return "Use Config B: similar accuracy, lower cost"
else:
return "Configs perform similarly, choose based on other factors"
# Usage
tester = ABTester()
# Setup A/B test
test = tester.setup_ab_test(
task='medical_qa',
config_a={'learning_rate': 2e-4, 'lora_rank': 16},
config_b={'learning_rate': 5e-4, 'lora_rank': 32},
test_name='lr_and_rank_test',
num_runs=3
)
# After each training run
tester.record_ab_result(
'lr_and_rank_test',
config='a',
results={'eval_accuracy': 0.87, 'cost_usd': 5.2, 'training_time_hours': 2.5}
)
# After all runs complete, get analysis
test = tester.get_test_results('lr_and_rank_test')
print(test['analysis']['recommendation'])
class KnowledgeBase(ABTester):
def extract_insights(self):
"""Extract insights from all experiments"""
insights = {
'total_experiments': len(self.experiments),
'tasks': {},
'best_practices': [],
'common_issues': []
}
# Group by task
from collections import defaultdict
by_task = defaultdict(list)
for exp in self.experiments:
by_task[exp['task']].append(exp)
# Analyze each task
for task, exps in by_task.items():
successful = [e for e in exps if e['results'].get('eval_accuracy', 0) > 0.80]
if len(successful) < 3:
continue # Not enough data
insights['tasks'][task] = {
'total_experiments': len(exps),
'success_rate': len(successful) / len(exps),
'avg_accuracy': np.mean([e['results']['eval_accuracy'] for e in successful]),
'avg_cost': np.mean([e['results'].get('cost_usd', 0) for e in successful]),
'optimal_config': self.suggest_config(task)
}
# Extract best practices
insights['best_practices'] = self.extract_best_practices()
# Identify common issues
insights['common_issues'] = self.identify_common_issues()
return insights
def extract_best_practices(self):
"""Extract best practices from successful experiments"""
practices = []
# Analyze learning rate
lr_analysis = self.analyze_all_hyperparameter('learning_rate')
if lr_analysis:
practices.append({
'category': 'learning_rate',
'recommendation': f"Use learning rate around {lr_analysis['optimal']:.0e}",
'confidence': lr_analysis['confidence'],
'data_points': lr_analysis['count']
})
# Analyze LoRA rank
rank_analysis = self.analyze_all_hyperparameter('lora_rank')
if rank_analysis:
practices.append({
'category': 'lora_rank',
'recommendation': f"Use LoRA rank {rank_analysis['optimal']}",
'confidence': rank_analysis['confidence'],
'data_points': rank_analysis['count']
})
return practices
def identify_common_issues(self):
"""Identify common issues from failed experiments"""
issues = []
failed = [
exp for exp in self.experiments
if exp['results'].get('eval_accuracy', 1.0) < 0.70
]
if not failed:
return []
# Check for common patterns in failures
# High loss
high_loss = [
exp for exp in failed
if exp['results'].get('final_loss', 0) > 1.0
]
if len(high_loss) > len(failed) * 0.3:
issues.append({
'issue': 'High final loss in 30%+ of failed experiments',
'suggestion': 'Consider longer training or higher learning rate',
'affected_experiments': len(high_loss)
})
# Slow training
slow = [
exp for exp in failed
if exp['results'].get('training_time_hours', 0) > 5
]
if len(slow) > len(failed) * 0.3:
issues.append({
'issue': 'Slow training in failed experiments',
'suggestion': 'Optimize batch size and gradient checkpointing',
'affected_experiments': len(slow)
})
return issues
def generate_report(self):
"""Generate comprehensive report"""
insights = self.extract_insights()
report = f"""
# Adaptive Workflow Report
Generated: {datetime.now().strftime('%Y-%m-%d %H:%M')}
## Summary
- Total Experiments: {insights['total_experiments']}
- Tasks Tracked: {len(insights['tasks'])}
## Task Performance
"""
for task, stats in insights['tasks'].items():
report += f"""
### {task}
- Experiments: {stats['total_experiments']}
- Success Rate: {stats['success_rate']:.1%}
- Average Accuracy: {stats['avg_accuracy']:.3f}
- Average Cost: ${stats['avg_cost']:.2f}
**Recommended Configuration:**
```python
{json.dumps(stats['optimal_config']['hyperparameters'], indent=2)}
"""
report += "\n## Best Practices\n\n"
for practice in insights['best_practices']:
report += f"- **{practice['category']}**: {practice['recommendation']} "
report += f"(Confidence: {practice['confidence']}, based on {practice['data_points']} experiments)\n"
if insights['common_issues']:
report += "\n## Common Issues\n\n"
for issue in insights['common_issues']:
report += f"- **{issue['issue']}**: {issue['suggestion']}\n"
return report
kb = KnowledgeBase()
report = kb.generate_report() print(report)
with open('workflow_report.md', 'w') as f: f.write(report)
## Integration with Other Skills
### Auto-Apply Learnings
```python
class AdaptiveTrainer(KnowledgeBase):
def smart_train(
self,
task: str,
dataset,
base_config: dict = None,
auto_optimize: bool = True
):
"""Train with automatic optimization based on past experience"""
# Get recommended config
if auto_optimize:
recommended = self.suggest_config(
task=task,
constraints=base_config.get('constraints', {})
)
print(f"Using optimized configuration based on {recommended['based_on_experiments']} past experiments")
config = recommended
else:
config = base_config or {}
# Setup model
model, tokenizer = FastLanguageModel.from_pretrained(
config['model'],
max_seq_length=config.get('max_seq_length', 2048),
load_in_4bit=True
)
# Setup LoRA
model = FastLanguageModel.get_peft_model(
model,
r=config['hyperparameters']['lora_rank'],
lora_alpha=config['hyperparameters']['lora_alpha'],
target_modules=["q_proj", "k_proj", "v_proj", "o_proj",
"gate_proj", "up_proj", "down_proj"]
)
# Setup training
trainer = SFTTrainer(
model=model,
tokenizer=tokenizer,
train_dataset=dataset,
args=TrainingArguments(
learning_rate=config['hyperparameters']['learning_rate'],
per_device_train_batch_size=config['hyperparameters']['batch_size'],
num_train_epochs=config['hyperparameters']['epochs'],
# ... other args
)
)
# Train and track
exp_id = self.track_training_run(
task=task,
config=config,
trainer=trainer,
dataset_info={'size': len(dataset)}
)
print(f"Training complete. Experiment ID: {exp_id}")
# Get suggestions for next time
suggestions = self.suggest_improvements(exp_id)
if suggestions:
print("\nSuggestions for next experiment:")
for s in suggestions:
print(f" - {s}")
return exp_id
# Usage
trainer = AdaptiveTrainer()
exp_id = trainer.smart_train(
task='medical_qa',
dataset=my_dataset,
auto_optimize=True # Use past learnings
)
# Always record experiments
# Even "failed" experiments provide valuable data
# Use consistent task names and metrics
# Makes pattern recognition more effective
# Generate reports monthly
kb = KnowledgeBase()
report = kb.generate_report()
# Review and update templates
# Keep workflow files in git
# Track evolution of your best practices
# Begin with basic tracking
# Add complexity as you gather data
Adaptive workflows enable continuous improvement:
The more you use it, the smarter it gets.
Start tracking today, and within 10-20 experiments, you'll have personalized best practices that work specifically for your use cases.