بنقرة واحدة
plan-mode-creation
Planモードの設計・作成・設定を自動化するスキル。AI開発ワークフローのPlanモードを効率的に構築し、チェックポイント管理・進捗監視・エラー回復機能を統合。SO8Tプロジェクト専用に最適化。
التثبيت باستخدام Codex أو Claude انسخ هذا Prompt والصقه في Codex أو Claude أو مساعد آخر ليراجع صفحة Skill ويثبّتها لك.
القائمة
Planモードの設計・作成・設定を自動化するスキル。AI開発ワークフローのPlanモードを効率的に構築し、チェックポイント管理・進捗監視・エラー回復機能を統合。SO8Tプロジェクト専用に最適化。
التثبيت باستخدام Codex أو Claude انسخ هذا Prompt والصقه في Codex أو Claude أو مساعد آخر ليراجع صفحة Skill ويثبّتها لك.
استنادا إلى تصنيف SOC المهني
Implement comprehensive mathematical theorem proving capabilities with SFT+GRPO training, MCP/A2A agent integration, and imatrix quantization protection to surpass Boreas-phi3.5-instinct-jp in formal proof generation and scientific discovery. Use when building mathematical reasoning systems, formal verification tools, or AI-assisted theorem proving environments.
Execute GGUF quantization with imatrix protection, perform statistical benchmark evaluation with error bars, generate academic-style methodology documentation, and create comprehensive scorecards. Use when evaluating model quantization quality, comparing quantization methods, or generating publication-ready evaluation results with subagent execution and PowerShell progress visualization.
Advanced multimodal 'thinking' model pipeline with SO8T Grand Design, stability-constrained evolutionary training (EvoFreeze), and specialized OSINT/Military/Bio data collection.
Implement comprehensive mathematical theorem proving capabilities with SFT+GRPO training, MCP/A2A agent integration, and imatrix quantization protection to surpass Boreas-phi3.5-instinct-jp in formal proof generation and scientific discovery. Use when building mathematical reasoning systems, formal verification tools, or AI-assisted theorem proving environments.
Execute GGUF quantization with imatrix protection, perform statistical benchmark evaluation with error bars, generate academic-style methodology documentation, and create comprehensive scorecards. Use when evaluating model quantization quality, comparing quantization methods, or generating publication-ready evaluation results with subagent execution and PowerShell progress visualization.
Create, manage, and update multi-step execution plans for complex tasks in Cursor. Use when the user asks for a plan/roadmap/phases/checklist, or when work has multiple dependent steps, higher risk, or requires coordination. Skip for straightforward tasks. Integrates with Cursor's todo_write tool for plan tracking.
| name | plan-mode-creation |
| description | Planモードの設計・作成・設定を自動化するスキル。AI開発ワークフローのPlanモードを効率的に構築し、チェックポイント管理・進捗監視・エラー回復機能を統合。SO8Tプロジェクト専用に最適化。 |
| metadata | {"short-description":"Planモード作成を自動化","version":"1.0.0","author":"SO8T Assistant","capabilities":["plan_mode_design","workflow_automation","checkpoint_management","progress_tracking","error_recovery"]} |
SO8Tプロジェクト専用に設計されたPlanモードの作成・設定・管理を自動化する高度なスキル。AIモデル開発の複雑なワークフローを効率的にPlan化し、信頼性の高い実行環境を構築します。
from skills.plan_mode_creation import PlanModeCreator
# AEGISモデル開発Planの自動作成
creator = PlanModeCreator()
plan_config = {
"project_name": "AEGIS-Phi3.5mini-jp Enhancement",
"task_type": "model_training_optimization",
"complexity": "ultra_high",
"resources": {
"gpu_required": True,
"gpu_memory_gb": 12,
"estimated_duration_hours": 48
},
"success_criteria": [
"performance_improvement > 5%",
"statistical_significance < 0.05",
"quantization_loss < 10%"
]
}
# Planモードの自動生成と設定
plan = creator.create_comprehensive_plan(plan_config)
print(f"Plan created: {plan.name}")
print(f"Estimated phases: {len(plan.phases)}")
print(f"Total checkpoints: {plan.total_checkpoints}")
# GGUF量子化最適化Plan
quantization_plan = creator.create_quantization_plan({
"input_model": "AEGIS-Phi3.5mini-jp",
"target_formats": ["Q8_0", "Q4_K_M", "Q3_K_L"],
"calibration_dataset": "so8t_benchmark_data",
"optimization_goals": {
"accuracy_retention": "maximize",
"inference_speed": "maximize",
"model_size": "minimize"
},
"benchmark_validation": True
})
# 最適化されたPlan実行
result = quantization_plan.execute_with_optimization()
# 研究論文自動生成Plan
paper_plan = creator.create_research_paper_plan({
"topic": "SO(8) NKAT Theory and Quadruple Inference",
"target_journal": "arXiv",
"sections": [
"abstract", "introduction", "theoretical_background",
"methodology", "experimental_results", "discussion", "conclusion"
],
"figures": ["theory_diagram", "benchmark_charts", "performance_graphs"],
"citations": ["geometric_dl_papers", "llm_research", "so8t_publications"],
"language": "bilingual" # 英語/日本語
})
# 完全自動論文生成
generated_paper = paper_plan.execute_research_workflow()
# タスクの自動分析
analyzer = creator.analyze_task_requirements(user_input)
print(f"Task complexity: {analyzer.complexity}")
print(f"Required phases: {analyzer.phase_count}")
print(f"Resource requirements: {analyzer.resources}")
# 最適なPlan構造の自動生成
structure = creator.design_plan_structure(analyzer)
print(f"Generated phases: {structure.phases}")
print(f"Checkpoint strategy: {structure.checkpoint_strategy}")
print(f"Error recovery plan: {structure.recovery_plan}")
# Planの詳細設定
config = creator.configure_plan_settings(structure, {
"checkpoint_interval": 180, # 3分
"notification_enabled": True,
"progress_reporting": True,
"error_recovery": True,
"parallel_execution": True
})
# Planの検証と最適化
validator = creator.validate_plan_configuration(config)
optimizer = creator.optimize_plan_performance(validator)
# 最終Planの生成
final_plan = creator.generate_final_plan(optimizer)
# 事前定義済みテンプレートを使用
templates = creator.list_available_templates()
print("Available templates:")
for template in templates:
print(f"- {template.name}: {template.description}")
# テンプレートからPlan作成
plan = creator.create_from_template("aegis_model_training", custom_config)
# カスタムPlanのステップバイステップ構築
builder = creator.create_plan_builder()
builder.add_phase("data_preparation", {
"name": "Data Preparation",
"duration": "2h",
"resources": ["CPU", "Storage"],
"tasks": ["download_dataset", "preprocess_data", "validate_quality"]
})
builder.add_phase("model_training", {
"name": "Model Training",
"duration": "24h",
"resources": ["GPU"],
"checkpoint_interval": 180,
"validation_frequency": 3600
})
builder.add_condition("training_success", "validation_accuracy > 0.85")
builder.add_notification("phase_complete", "email_admin")
plan = builder.build()
# 利用可能なリソースに基づく自動最適化
optimizer = creator.create_resource_optimizer()
optimized_config = optimizer.optimize_for_environment({
"available_gpus": 2,
"gpu_memory_per_gpu": 24, # GB
"cpu_cores": 16,
"available_ram": 64, # GB
"storage_space": 500 # GB
})
print(f"Recommended parallel tasks: {optimized_config.parallel_tasks}")
print(f"Optimal batch size: {optimized_config.batch_size}")
print(f"Memory allocation: {optimized_config.memory_allocation}")
# Planの包括的検証
verifier = creator.create_plan_verifier()
validation_results = verifier.validate_plan(plan, {
"syntax_check": True,
"logic_validation": True,
"resource_consistency": True,
"performance_estimation": True,
"failure_scenario_analysis": True
})
if validation_results.is_valid:
print("Plan validation passed!")
print(f"Estimated success rate: {validation_results.success_probability}%")
else:
print("Validation issues found:")
for issue in validation_results.issues:
print(f"- {issue.severity}: {issue.description}")
# 実行時間の予測と最適化
predictor = creator.create_performance_predictor()
prediction = predictor.predict_execution_time(plan, {
"hardware_profile": "rtx3080_12gb",
"dataset_size": "50gb",
"model_complexity": "high",
"parallel_processing": True
})
print(f"Estimated total time: {prediction.total_hours} hours")
print(f"Estimated cost: ${prediction.compute_cost}")
print(f"Bottleneck analysis: {prediction.bottlenecks}")
# Enhanced Moonshot Pipelineとの統合
moonshot_integration = creator.integrate_with_moonshot({
"pipeline_path": "enhanced_moonshot_pipeline_power_recovery.py",
"integration_points": ["phase_10.7", "phase_10.8", "phase_10.9"],
"shared_resources": True,
"checkpoint_synchronization": True
})
integrated_plan = moonshot_integration.create_integrated_plan()
# GitHub Actionsとの統合
ci_integration = creator.create_ci_integration({
"platform": "github_actions",
"workflow_name": "so8t_model_training",
"trigger_events": ["push", "schedule"],
"environment_variables": {
"MODEL_NAME": "AEGIS-Phi3.5mini-jp",
"QUANTIZATION_LEVELS": "Q8_0,Q4_K_M"
}
})
ci_integration.generate_workflow_file()
plan_mode_creation:
default_template: "so8t_model_development"
checkpoint_interval: 180
max_parallel_tasks: 4
notification_channels: ["email", "slack"]
error_recovery: true
progress_reporting: true
resource_monitoring: true
performance_optimization: true
# SO8Tプロジェクトの最適化設定
so8t_config = {
"statistical_validation": True,
"benchmark_automation": True,
"quantization_optimization": True,
"llm_judge_integration": True,
"paper_generation": True,
"bilingual_support": True
}
creator.apply_project_settings(so8t_config)
# 新しいPlanテンプレートの作成
template_builder = creator.create_template_builder()
template_builder.set_name("custom_so8t_workflow")
template_builder.set_description("SO8T専用カスタムワークフロー")
template_builder.add_phase_template("custom_phase", {
"required_fields": ["task_name", "duration", "resources"],
"optional_fields": ["checkpoint_interval", "validation_criteria"],
"default_values": {
"checkpoint_interval": 300,
"validation_criteria": "accuracy > 0.8"
}
})
custom_template = template_builder.build()
creator.register_template(custom_template)
# カスタムプラグインの開発
class CustomBenchmarkPlugin(PlanPlugin):
def execute(self, context):
# カスタムベンチマーク実行ロジック
results = self.run_custom_benchmarks(context.model_path)
return self.format_results(results)
# プラグイン登録
creator.register_plugin("custom_benchmark", CustomBenchmarkPlugin())
# 詳細デバッグ有効化
creator.enable_debug_mode()
creator.set_log_level("DEBUG")
# Plan作成のステップバイステップ追跡
debug_plan = creator.create_plan_with_debug(user_config)
実装完了: 2026-01-17 01:30:00 機能: Planモード作成スキル実装 ワークツリー名: plan_mode_creation
実装内容:
技術仕様:
使用方法:
from skills.plan_mode_creation import PlanModeCreatorcreator = PlanModeCreator()plan = creator.create_comprehensive_plan(config)result = plan.execute()特長:
このPlanモード作成スキルは、SO8Tプロジェクトの複雑なAI開発ワークフローを効率的にPlan化し、信頼性の高い自動実行環境を構築します。