Task Context Technical Documentation
1. Overview
Core Functionality and Value
domain/task/task_context.py is a core domain service component of the AIECS system, implementing the enhanced task context manager TaskContext and context update model ContextUpdate. These components provide comprehensive task execution context management, resource tracking, performance monitoring, and persistent storage capabilities for the entire AI application system.
Core Value:
Enhanced Context Management: Provides complete task execution context lifecycle management, including history tracking, resource management, and performance monitoring
Resource Tracking and Cleanup: Automatically tracks file operations, model usage, and resource allocation, ensuring proper resource release
Persistent Storage: Supports persistent storage and recovery of context history, ensuring task state continuity
Async Support: Provides both synchronous and asynchronous context management modes, adapting to different use cases
Performance Optimization: Built-in context optimization mechanisms, supporting deduplication and size limits, ensuring system performance
Problems Solved:
Lack of complete context state management during task execution
Lack of automation mechanisms for resource allocation and cleanup
Lack of persistent storage and recovery capabilities for task history
Lack of performance monitoring and optimization mechanisms for long-running tasks
Lack of unified context management interface for asynchronous task execution
2. Problem Background and Design Motivation
Problem Background
When building complex AI application systems, task execution context management faces the following core challenges:
1. Context State Management Complexity
Task execution requires maintaining large amounts of state information (user ID, chat ID, metadata, etc.)
Different task steps need to share context state and historical information
Lack of unified context lifecycle management mechanism
2. Resource Management Difficulties
Task execution creates and allocates various resources (files, models, connections, etc.)
Resource cleanup lacks automation mechanisms, easily leading to resource leaks
Lack of unified resource tracking and management interface
3. Persistent Storage Requirements
Long-running tasks require persistent storage of context state
System needs to recover task context state after restart
Lack of efficient context serialization and deserialization mechanisms
4. Performance Monitoring and Optimization
Task execution performance lacks monitoring and statistics mechanisms
Context history growth may lead to excessive memory usage
Lack of context optimization and cleanup mechanisms
5. Async Execution Support
Modern AI applications extensively use asynchronous programming patterns
Lack of support for asynchronous context managers
Synchronous and asynchronous modes lack unified interface
Design Motivation
Task Context System Solution:
Enhanced Context Manager: Provides complete context lifecycle management through TaskContext
Automatic Resource Management: Ensures proper resource release through resource tracking and automatic cleanup mechanisms
Persistent Storage: Implements persistent storage of context history through file system storage
Performance Optimization: Optimizes context performance through deduplication and size limit mechanisms
Async Support: Supports modern asynchronous programming patterns through asynchronous context managers
3. Architecture Positioning and Context
Component Type
Domain Service Component - Located in the Domain Layer, belongs to the business logic layer
Architecture Layers
┌─────────────────────────────────────────┐
│ Application Layer │ ← Components using task context
│ (AIECS Client, OperationExecutor) │
└─────────────────┬───────────────────────┘
│
┌─────────────────▼───────────────────────┐
│ Domain Layer │ ← Task context layer
│ (TaskContext, ContextUpdate, Logic) │
└─────────────────┬───────────────────────┘
│
┌─────────────────▼───────────────────────┐
│ Infrastructure Layer │ ← Components task context depends on
│ (FileSystem, Logging, AsyncIO) │
└─────────────────┬───────────────────────┘
│
┌─────────────────▼───────────────────────┐
│ External Systems │ ← External systems
│ (FileSystem, Database, Monitoring) │
└─────────────────────────────────────────┘
Upstream Components (Consumers)
1. Application Layer Services
AIECS Client (
aiecs_client.py) - Main client interfaceOperationExecutor (
application/executors/operation_executor.py) - Operation executorTaskManager (if exists) - Task manager
2. Domain Services
DSLProcessor (
domain/task/dsl_processor.py) - DSL processorContextEngine (
domain/context/content_engine.py) - Content engineOther task-related services - Task execution related services
3. Infrastructure Layer
Storage Systems - Store task context through serialization interface
API Layer - Through data conversion interface
Message Queue - Through message format
Downstream Components (Dependencies)
1. Python Standard Library
time - Provides timestamp support
json - Provides JSON serialization support
os - Provides file system operations
pathlib - Provides path operations
asyncio - Provides asynchronous programming support
contextlib - Provides context manager support
dataclasses - Provides dataclass support
typing - Provides type annotation support
2. Domain Models
ContextUpdate - Context update model
Other domain models - Associated through metadata fields
3. Utility Functions
build_context - Backward-compatible context building function
task_context - Asynchronous context manager
4. Core Features and Use Cases
4.1 TaskContext - Enhanced Task Context Management
Core Functionality
1. Basic Context Information Management
class TaskContext:
"""Enhanced task context manager"""
def __init__(self, data: dict, task_dir: str = "./tasks"):
self.user_id = data.get("user_id", "anonymous")
self.chat_id = data.get("chat_id", "none")
self.metadata = data.get("metadata", {})
self.task_dir = Path(task_dir)
self.start_time: Optional[float] = None
self.resources: Dict[str, Any] = {}
self.context_history: List[ContextUpdate] = []
self.file_tracker: Dict[str, Dict[str, Any]] = {}
self.model_tracker: List[Dict[str, Any]] = []
self.metadata_toggles: Dict[str, bool] = data.get("metadata_toggles", {})
2. Context History Tracking
def add_context_update(self, update_type: str, data: Any, metadata: Dict[str, Any] = None):
"""Add context update"""
update = ContextUpdate(
timestamp=time.time(),
update_type=update_type,
data=data,
metadata=metadata or {}
)
self.context_history.append(update)
3. Resource Management
def add_resource(self, name: str, resource: Any) -> None:
"""Add resource that needs cleanup"""
self.resources[name] = resource
self.add_context_update("resource", {"name": name}, {"type": type(resource).__name__})
4. File Operation Tracking
def track_file_operation(self, file_path: str, operation: str, source: str = "task"):
"""Track file operation"""
self.file_tracker[file_path] = {
"operation": operation,
"source": source,
"timestamp": time.time(),
"state": "active"
}
5. Model Usage Tracking
def track_model_usage(self, model_id: str, provider_id: str, mode: str):
"""Track AI model usage"""
model_entry = {
"model_id": model_id,
"provider_id": provider_id,
"mode": mode,
"timestamp": time.time()
}
if not self.model_tracker or self.model_tracker[-1] != model_entry:
self.model_tracker.append(model_entry)
self.add_context_update("model_usage", model_entry)
6. Context Optimization
def optimize_context(self, max_size: int = 1000) -> bool:
"""Optimize context, remove duplicates and old entries"""
deduplicated = {}
optimized_history = []
total_size = 0
for update in reversed(self.context_history):
key = f"{update.update_type}:{json.dumps(update.data, sort_keys=True)}"
if key not in deduplicated:
deduplicated[key] = update
data_size = len(str(update.data))
if total_size + data_size <= max_size:
optimized_history.append(update)
total_size += data_size
self.context_history = list(reversed(optimized_history))
return len(deduplicated) < len(self.context_history)
4.2 ContextUpdate - Context Update Model
Core Functionality
1. Structured Update Records
@dataclass
class ContextUpdate:
"""Represents a single update to the context"""
timestamp: float
update_type: str # e.g.: "message", "metadata", "resource"
data: Any # Update content
metadata: Dict[str, Any] # Additional metadata
2. Typed Update Support
message: Message update
metadata: Metadata update
resource: Resource update
file_operation: File operation update
model_usage: Model usage update
4.3 Software Functionality Scenarios
Scenario 1: Intelligent Document Processing Task
# Create document processing task context
doc_context = TaskContext(
data={
"user_id": "doc_processor_001",
"chat_id": "doc_session_abc123",
"metadata": {
"document_type": "pdf",
"language": "zh-CN",
"processing_mode": "batch"
}
},
task_dir="/var/lib/aiecs/tasks"
)
# Track document processing process
doc_context.add_context_update("message", "Starting document processing", {"source": "system"})
doc_context.track_file_operation("input.pdf", "read", "user")
doc_context.track_model_usage("gpt-4", "openai", "text_extraction")
# Add processing resources
with open("input.pdf", "rb") as f:
doc_context.add_resource("pdf_file", f)
# Process document...
# Optimize context
doc_context.optimize_context(max_size=2000)
Scenario 2: Data Science Workflow
# Create data science task context
ds_context = TaskContext(
data={
"user_id": "data_scientist_001",
"chat_id": "ml_pipeline_session",
"metadata": {
"project": "customer_segmentation",
"algorithm": "kmeans",
"dataset_size": "large"
}
}
)
# Track machine learning process
ds_context.add_context_update("message", "Starting data preprocessing", {"step": "preprocessing"})
ds_context.track_file_operation("customer_data.csv", "read", "pandas")
ds_context.track_model_usage("sklearn", "scikit-learn", "clustering")
# Track model training
ds_context.add_context_update("message", "Starting model training", {"step": "training"})
ds_context.track_model_usage("kmeans", "sklearn", "clustering")
# Save context history
await ds_context._save_context_history()
Scenario 3: Real-time Chatbot
# Create chatbot task context
chat_context = TaskContext(
data={
"user_id": "user_456",
"chat_id": "chat_session_xyz789",
"metadata": {
"bot_type": "customer_service",
"language": "en",
"model": "gpt-4"
}
}
)
# Track conversation process
chat_context.add_context_update("message", "User input: Hello", {"source": "user"})
chat_context.track_model_usage("gpt-4", "openai", "chat_completion")
chat_context.add_context_update("message", "AI reply: Hi! How can I help you?", {"source": "ai"})
# Track file operations
chat_context.track_file_operation("conversation_log.json", "write", "logging")
# Async context management
async with task_context(chat_data, task_dir="./chat_tasks") as context:
# Handle chat logic...
pass
4.4 Real-world Use Cases
Case 1: Multi-step Data Analysis Pipeline
async def data_analysis_pipeline():
"""Data analysis pipeline example"""
# Create analysis context
context = TaskContext(
data={
"user_id": "analyst_001",
"chat_id": "analysis_session_001",
"metadata": {
"pipeline_type": "sales_analysis",
"data_source": "database",
"output_format": "excel"
}
},
task_dir="./analysis_tasks"
)
try:
# Step 1: Data loading
context.add_context_update("message", "Starting data loading", {"step": "data_loading"})
context.track_file_operation("sales_data.csv", "read", "pandas")
# Step 2: Data cleaning
context.add_context_update("message", "Starting data cleaning", {"step": "data_cleaning"})
context.track_model_usage("pandas", "python", "data_processing")
# Step 3: Data analysis
context.add_context_update("message", "Starting data analysis", {"step": "analysis"})
context.track_model_usage("numpy", "python", "statistical_analysis")
# Step 4: Result output
context.add_context_update("message", "Generating analysis report", {"step": "reporting"})
context.track_file_operation("analysis_report.xlsx", "write", "openpyxl")
# Optimize context
context.optimize_context(max_size=1500)
return context.to_dict()
except Exception as e:
context.add_context_update("error", str(e), {"step": "pipeline_error"})
raise
finally:
# Cleanup resources
for resource_name, resource in context.resources.items():
if hasattr(resource, 'close'):
resource.close()
Case 2: Real-time Monitoring System
async def real_time_monitoring():
"""Real-time monitoring system example"""
# Create monitoring context
context = TaskContext(
data={
"user_id": "monitor_001",
"chat_id": "monitoring_session",
"metadata": {
"monitoring_type": "system_health",
"alert_threshold": 0.8,
"check_interval": 60
}
}
)
# Track monitoring process
context.add_context_update("message", "Starting system monitoring", {"source": "monitor"})
# Simulate monitoring loop
for i in range(10):
# Check system status
context.add_context_update("monitoring", f"Check #{i+1}", {"timestamp": time.time()})
# Track resource usage
context.track_model_usage("system_monitor", "internal", "health_check")
# Simulate file operations
context.track_file_operation(f"monitor_log_{i}.txt", "write", "logging")
# Optimize context (after every 5 checks)
if (i + 1) % 5 == 0:
context.optimize_context(max_size=1000)
await asyncio.sleep(1)
return context.to_dict()
Case 3: Batch Processing Task Management
async def batch_processing_manager():
"""Batch processing task management example"""
# Create batch processing context
context = TaskContext(
data={
"user_id": "batch_processor_001",
"chat_id": "batch_session_001",
"metadata": {
"batch_size": 1000,
"processing_mode": "parallel",
"output_format": "json"
}
}
)
# Track batch processing process
context.add_context_update("message", "Starting batch processing task", {"batch_id": "batch_001"})
# Simulate batch processing
for batch_num in range(5):
batch_id = f"batch_{batch_num + 1}"
context.add_context_update("batch", f"Processing batch {batch_id}", {"batch_id": batch_id})
# Track file operations
context.track_file_operation(f"input_{batch_id}.csv", "read", "batch_processor")
context.track_file_operation(f"output_{batch_id}.json", "write", "batch_processor")
# Track model usage
context.track_model_usage("batch_processor", "internal", "data_processing")
# Periodically optimize context
if (batch_num + 1) % 2 == 0:
context.optimize_context(max_size=2000)
# Save final context
await context._save_context_history()
return context.to_dict()
5. API Reference
5.1 TaskContext Class
Constructor
def __init__(self, data: dict, task_dir: str = "./tasks")
Parameters:
data(dict): Context data dictionary, requiredtask_dir(str): Task directory path, optional, defaults to “./tasks”
Returns: None
Exceptions: None
Methods
add_context_update
def add_context_update(self, update_type: str, data: Any, metadata: Dict[str, Any] = None) -> None
Function: Add context update
Parameters:
update_type(str): Update type, requireddata(Any): Update data, requiredmetadata(Dict[str, Any]): Additional metadata, optional, defaults to None
Returns: None
Exceptions: None
add_resource
def add_resource(self, name: str, resource: Any) -> None
Function: Add resource that needs cleanup
Parameters:
name(str): Resource name, requiredresource(Any): Resource object, required
Returns: None
Exceptions: None
track_file_operation
def track_file_operation(self, file_path: str, operation: str, source: str = "task") -> None
Function: Track file operation
Parameters:
file_path(str): File path, requiredoperation(str): Operation type, requiredsource(str): Operation source, optional, defaults to “task”
Returns: None
Exceptions: None
track_model_usage
def track_model_usage(self, model_id: str, provider_id: str, mode: str) -> None
Function: Track AI model usage
Parameters:
model_id(str): Model ID, requiredprovider_id(str): Provider ID, requiredmode(str): Usage mode, required
Returns: None
Exceptions: None
optimize_context
def optimize_context(self, max_size: int = 1000) -> bool
Function: Optimize context, remove duplicates and old entries
Parameters:
max_size(int): Maximum size limit, optional, defaults to 1000
Returns: bool - Whether optimization was performed
Exceptions: None
to_dict
def to_dict(self) -> Dict[str, Any]
Function: Convert context to dictionary format
Parameters: None
Returns: Dict[str, Any] - Dictionary containing all context information
Exceptions: None
5.2 ContextUpdate Class
Constructor
@dataclass
class ContextUpdate:
timestamp: float
update_type: str
data: Any
metadata: Dict[str, Any]
Parameters:
timestamp(float): Timestamp, requiredupdate_type(str): Update type, requireddata(Any): Update data, requiredmetadata(Dict[str, Any]): Additional metadata, required
Returns: None
Exceptions: None
5.3 Utility Functions
build_context
def build_context(data: dict) -> dict
Function: Build simple context dictionary (backward compatible)
Parameters:
data(dict): Context data, required
Returns: dict - Context dictionary
Exceptions: None
task_context
@asynccontextmanager
async def task_context(data: dict, task_dir: str = "./tasks") -> AsyncGenerator[TaskContext, None]
Function: Asynchronous context manager
Parameters:
data(dict): Context data, requiredtask_dir(str): Task directory path, optional, defaults to “./tasks”
Returns: AsyncGenerator[TaskContext, None] - Asynchronous context generator
Exceptions: None
6. Technical Implementation Details
6.1 Context History Management
Persistent Storage Mechanism
def _initialize_persistence(self):
"""Initialize persistent storage for context history"""
try:
self.task_dir.mkdir(parents=True, exist_ok=True)
history_file = self.task_dir / f"context_history_{self.chat_id}.json"
if history_file.exists():
with open(history_file, "r") as f:
raw_history = json.load(f)
self.context_history = [
ContextUpdate(
timestamp=entry["timestamp"],
update_type=entry["update_type"],
data=entry["data"],
metadata=entry["metadata"]
)
for entry in raw_history
]
except Exception as e:
logger.error(f"Failed to initialize context history: {e}")
Async Save Mechanism
async def _save_context_history(self):
"""Asynchronously save context history to disk"""
try:
history_file = self.task_dir / f"context_history_{self.chat_id}.json"
serialized_history = [
{
"timestamp": update.timestamp,
"update_type": update.update_type,
"data": update.data,
"metadata": update.metadata
}
for update in self.context_history
]
with open(history_file, "w") as f:
json.dump(serialized_history, f, indent=2)
except Exception as e:
logger.error(f"Failed to save context history: {e}")
6.2 Resource Management Mechanism
Resource Tracking and Cleanup
def add_resource(self, name: str, resource: Any) -> None:
"""Add resource that needs cleanup"""
self.resources[name] = resource
self.add_context_update("resource", {"name": name}, {"type": type(resource).__name__})
# Automatically cleanup resources when context exits
async def __aexit__(self, exc_type, exc_val, exc_tb):
"""Cleanup resources when async context exits"""
for resource_name, resource in self.resources.items():
try:
if hasattr(resource, 'close'):
if callable(getattr(resource, 'close')):
if hasattr(resource.close, '__await__'):
await resource.close()
else:
resource.close()
except Exception as e:
logger.error(f"Error cleaning up async resource {resource_name}: {e}")
6.3 Context Optimization Mechanism
Deduplication and Size Limiting
def optimize_context(self, max_size: int = 1000) -> bool:
"""Optimize context, remove duplicates and old entries"""
deduplicated = {}
optimized_history = []
total_size = 0
# Process from newest, keep latest updates
for update in reversed(self.context_history):
key = f"{update.update_type}:{json.dumps(update.data, sort_keys=True)}"
if key not in deduplicated:
deduplicated[key] = update
data_size = len(str(update.data))
if total_size + data_size <= max_size:
optimized_history.append(update)
total_size += data_size
self.context_history = list(reversed(optimized_history))
return len(deduplicated) < len(self.context_history)
6.4 Async Context Management
Async Context Manager Implementation
async def __aenter__(self):
"""Async context entry"""
self.start_time = time.time()
logger.debug(f"Starting async task context for user {self.user_id}, chat {self.chat_id}")
return self
async def __aexit__(self, exc_type, exc_val, exc_tb):
"""Async context exit"""
duration = time.time() - self.start_time
logger.debug(f"Completed async task context in {duration:.2f}s for user {self.user_id}")
# Cleanup resources
for resource_name, resource in self.resources.items():
try:
if hasattr(resource, 'close'):
if callable(getattr(resource, 'close')):
if hasattr(resource.close, '__await__'):
await resource.close()
else:
resource.close()
except Exception as e:
logger.error(f"Error cleaning up async resource {resource_name}: {e}")
# Save context history
await self._save_context_history()
return False
7. Configuration and Deployment
7.1 Default Configuration
TaskContext Default Configuration
# Default task directory
DEFAULT_TASK_DIR = "./tasks"
# Default metadata
DEFAULT_METADATA = {}
# Default metadata toggles
DEFAULT_METADATA_TOGGLES = {}
# Default context optimization size
DEFAULT_MAX_CONTEXT_SIZE = 1000
7.2 Environment Variable Support
Configuration Environment Variables
import os
# Get configuration from environment variables
TASK_DIR = os.getenv("AIECS_TASK_DIR", "./tasks")
MAX_CONTEXT_SIZE = int(os.getenv("AIECS_MAX_CONTEXT_SIZE", "1000"))
ENABLE_PERSISTENCE = os.getenv("AIECS_ENABLE_PERSISTENCE", "true").lower() == "true"
LOG_LEVEL = os.getenv("AIECS_LOG_LEVEL", "INFO")
Configuration Validation
def validate_config():
"""Validate configuration parameters"""
task_dir = os.getenv("AIECS_TASK_DIR", "./tasks")
if not os.path.exists(task_dir):
os.makedirs(task_dir, exist_ok=True)
max_size = int(os.getenv("AIECS_MAX_CONTEXT_SIZE", "1000"))
if max_size <= 0:
raise ValueError("Max context size must be positive")
log_level = os.getenv("AIECS_LOG_LEVEL", "INFO")
valid_levels = ["DEBUG", "INFO", "WARNING", "ERROR", "CRITICAL"]
if log_level not in valid_levels:
raise ValueError(f"Log level must be one of {valid_levels}")
7.3 Deployment Configuration
Production Environment Configuration
# Production environment configuration
PRODUCTION_CONFIG = {
"task_dir": "/var/lib/aiecs/tasks",
"max_context_size": 5000,
"enable_persistence": True,
"log_level": "INFO",
"cleanup_interval": 3600, # 1 hour
"max_history_files": 100
}
Development Environment Configuration
# Development environment configuration
DEVELOPMENT_CONFIG = {
"task_dir": "./tasks",
"max_context_size": 1000,
"enable_persistence": False,
"log_level": "DEBUG",
"cleanup_interval": 300, # 5 minutes
"max_history_files": 10
}
8. Maintenance and Troubleshooting
8.1 Daily Maintenance
Context Health Check
def check_context_health(context: TaskContext):
"""Check context health status"""
try:
# Check basic fields
if not context.user_id:
print("❌ Missing user_id")
return False
if not context.chat_id:
print("❌ Missing chat_id")
return False
# Check context history
if not isinstance(context.context_history, list):
print("❌ Context history is not a list")
return False
# Check resources dictionary
if not isinstance(context.resources, dict):
print("❌ Resources is not a dictionary")
return False
# Check file tracker
if not isinstance(context.file_tracker, dict):
print("❌ File tracker is not a dictionary")
return False
# Check model tracker
if not isinstance(context.model_tracker, list):
print("❌ Model tracker is not a list")
return False
print("✅ Context health check passed")
return True
except Exception as e:
print(f"❌ Context health check failed: {e}")
return False
Performance Monitoring
def monitor_context_performance(context: TaskContext):
"""Monitor context performance"""
# Check context size
context_size = len(str(context.to_dict()))
print(f"Context size: {context_size} characters")
# Check history entry count
history_count = len(context.context_history)
print(f"History entries: {history_count}")
# Check resource count
resource_count = len(context.resources)
print(f"Resources: {resource_count}")
# Check file tracking count
file_count = len(context.file_tracker)
print(f"Tracked files: {file_count}")
# Check model usage count
model_count = len(context.model_tracker)
print(f"Model usages: {model_count}")
# Optimization suggestions
if context_size > 5000:
print("⚠️ Context size is large, consider optimization")
if history_count > 100:
print("⚠️ History has many entries, consider optimization")
8.2 Troubleshooting
Common Issue Diagnosis
Issue 1: Context History Loading Failure
def diagnose_history_loading_issue():
"""Diagnose context history loading issues"""
try:
# Check task directory
task_dir = Path("./tasks")
if not task_dir.exists():
print("❌ Task directory does not exist")
return False
# Check history file
history_file = task_dir / "context_history_test.json"
if not history_file.exists():
print("❌ History file does not exist")
return False
# Check file permissions
if not os.access(history_file, os.R_OK):
print("❌ History file is not readable")
return False
# Check JSON format
with open(history_file, "r") as f:
json.load(f)
print("✅ History file is valid JSON")
return True
except json.JSONDecodeError as e:
print(f"❌ History file has invalid JSON: {e}")
return False
except Exception as e:
print(f"❌ History loading failed: {e}")
return False
Issue 2: Resource Cleanup Failure
def diagnose_resource_cleanup_issue():
"""Diagnose resource cleanup issues"""
try:
context = TaskContext({"user_id": "test", "chat_id": "test"})
# Add test resource
class TestResource:
def close(self):
raise Exception("Test cleanup error")
context.add_resource("test_resource", TestResource())
# Test resource cleanup
for resource_name, resource in context.resources.items():
try:
if hasattr(resource, 'close'):
resource.close()
print(f"✅ Resource {resource_name} cleaned up successfully")
except Exception as e:
print(f"❌ Resource {resource_name} cleanup failed: {e}")
return True
except Exception as e:
print(f"❌ Resource cleanup diagnosis failed: {e}")
return False
Issue 3: Context Optimization Failure
def diagnose_context_optimization_issue():
"""Diagnose context optimization issues"""
try:
context = TaskContext({"user_id": "test", "chat_id": "test"})
# Add many context updates
for i in range(100):
context.add_context_update("test", f"data_{i}", {"index": i})
# Test optimization
original_size = len(context.context_history)
optimized = context.optimize_context(max_size=50)
if optimized:
new_size = len(context.context_history)
print(f"✅ Context optimized: {original_size} -> {new_size}")
else:
print("⚠️ Context optimization had no effect")
return True
except Exception as e:
print(f"❌ Context optimization failed: {e}")
return False
8.3 Performance Optimization
Memory Usage Optimization
def optimize_memory_usage():
"""Optimize memory usage"""
import gc
import sys
# Create many context objects
contexts = []
for i in range(1000):
context = TaskContext({"user_id": f"user_{i}", "chat_id": f"chat_{i}"})
for j in range(10):
context.add_context_update("test", f"data_{i}_{j}")
contexts.append(context)
print(f"Memory usage before cleanup: {sys.getsizeof(contexts)} bytes")
# Cleanup objects
contexts.clear()
gc.collect()
print(f"Memory usage after cleanup: {sys.getsizeof(contexts)} bytes")
Context Optimization
def optimize_context_performance():
"""Optimize context performance"""
import time
context = TaskContext({"user_id": "test", "chat_id": "test"})
# Add many updates
for i in range(1000):
context.add_context_update("test", f"data_{i}")
# Test optimization performance
start_time = time.time()
context.optimize_context(max_size=100)
end_time = time.time()
print(f"Context optimization time: {(end_time - start_time) * 1000:.2f}ms")
print(f"Final context size: {len(context.context_history)} entries")
9. Visualizations
9.1 Architecture Layers Diagram
graph TB
subgraph "Application Layer"
A[AIECS Client]
B[OperationExecutor]
C[TaskManager]
end
subgraph "Domain Layer"
D[TaskContext]
E[ContextUpdate]
F[Context Management]
end
subgraph "Infrastructure Layer"
G[FileSystem]
H[Logging]
I[AsyncIO]
end
subgraph "External Systems"
J[File Storage]
K[Monitoring]
L[Resource Management]
end
A --> D
B --> D
C --> D
A --> E
B --> E
C --> E
D --> G
E --> H
F --> I
G --> J
H --> K
I --> L
9.2 Context Lifecycle Diagram
graph LR
subgraph "TaskContext Lifecycle"
A[Create Context] --> B[Initialize Persistence]
B --> C[Add Updates]
C --> D[Track Resources]
D --> E[Track Files]
E --> F[Track Models]
F --> G[Optimize Context]
G --> H[Save History]
H --> I[Cleanup Resources]
I --> J[Destroy Context]
end
9.3 Resource Management Flow Diagram
graph TD
A[Add Resource] --> B[Track in Resources Dict]
B --> C[Add Context Update]
C --> D[Context Exit]
D --> E{Resource has close method?}
E -->|Yes| F[Call close method]
E -->|No| G[Skip cleanup]
F --> H[Log cleanup result]
G --> H
H --> I[Remove from Resources]
9.4 Async Context Management Diagram
graph TD
A[Async Context Manager] --> B[__aenter__]
B --> C[Set start_time]
C --> D[Return context]
D --> E[Execute task]
E --> F[__aexit__]
F --> G[Calculate duration]
G --> H[Cleanup resources]
H --> I[Save context history]
I --> J[Log completion]
10. Version History
v1.0.0 (2024-01-01)
Initial Version: Basic TaskContext and ContextUpdate models
Features:
TaskContext basic context management
ContextUpdate context update model
Basic serialization support
v1.1.0 (2024-01-15)
Enhanced Features:
Added context history tracking
Added resource management functionality
Improved serialization mechanism
v1.2.0 (2024-02-01)
New Features:
Added file operation tracking
Added model usage tracking
Added context optimization functionality
v1.3.0 (2024-02-15)
Optimization Features:
Added asynchronous context manager support
Improved resource cleanup mechanism
Added performance monitoring
v1.4.0 (2024-03-01)
Extension Features:
Added persistent storage support
Added context history truncation functionality
Added metadata toggle support
v1.5.0 (2024-03-15)
Completion Features:
Added monitoring and logging support
Improved troubleshooting tools
Added performance optimization suggestions