🧠 Cognito Simulation Engine
For consulting and enterprise solutions: Krishna Bajpai – AI/ML & Quantum Consultant
A modular cognitive simulation engine for modeling and testing advanced AI cognitive architectures.
Cognito Simulation Engine is a groundbreaking framework designed for AGI research, providing sophisticated tools for simulating cognitive processes including symbolic reasoning, memory modeling, goal-directed behavior, and metacognitive learning agents.
🌟 Features
Core Cognitive Systems
- 🧠 Advanced Memory Modeling: Working memory, episodic memory, and long-term memory with realistic cognitive constraints
- 🎯 Goal-Directed Reasoning: Symbolic reasoning engine with forward/backward chaining and abductive inference
- 🤖 Cognitive Agents: Multiple agent architectures (Basic, Reasoning, Learning, MetaCognitive)
- 🌍 Interactive Environments: Rich environments for agent perception, action, and learning
- 📊 Comprehensive Analytics: Performance metrics, behavioral analysis, and cognitive load monitoring
Advanced Capabilities
- 🔄 Metacognitive Reflection: Agents that reason about their own cognitive processes
- 📚 Episodic Memory Simulation: Realistic memory formation, consolidation, and retrieval
- ⚡ Working Memory Constraints: Miller's 7±2 rule implementation with attention dynamics
- 🧩 Symbolic Reasoning: Rule-based inference with uncertainty handling
- 🎓 Multiple Learning Strategies: Reinforcement learning, discovery learning, and imitation learning
🚀 Quick Start
Installation
pip install cognito-sim-engine
Basic Usage
from cognito_sim_engine import CognitiveEngine, CognitiveAgent, CognitiveEnvironment
from cognito_sim_engine import Goal, Fact, SimulationConfig
# Create a cognitive environment
env = CognitiveEnvironment("Research Lab")
# Configure the simulation
config = SimulationConfig(
max_cycles=100,
working_memory_capacity=7,
enable_metacognition=True,
enable_learning=True
)
# Create the cognitive engine
engine = CognitiveEngine(config=config, environment=env)
# Create a cognitive agent
agent = CognitiveAgent("researcher_01", "Dr. Cognitive")
# Add the agent to the environment
env.add_agent("researcher_01")
# Define a research goal
research_goal = Goal(
description="Understand the cognitive architecture",
priority=0.8,
target_facts=[Fact("understood", ["cognitive_architecture"])]
)
# Add goal to the agent
agent.add_goal(research_goal)
# Run the simulation
metrics = engine.run_simulation()
print(f"Simulation completed in {metrics.total_cycles} cycles")
print(f"Goals achieved: {metrics.goals_achieved}")
Command Line Interface
The package includes a powerful CLI for running simulations:
# Run a basic simulation
cogsim run --cycles 100 --agents 2 --agent-type cognitive
# Run an interactive simulation
cogsim run --interactive --cycles 50 --verbose
# Create a specialized reasoning agent
cogsim create-agent --type reasoning --name "LogicMaster"
# Run demonstration scenarios
cogsim demo --scenario reasoning --interactive
# Analyze simulation results
cogsim analyze session.json --format console
# Show system capabilities
cogsim info
🏗️ Architecture Overview
Cognitive Engine
The central orchestrator that manages cognitive cycles:
- Perception Processing: Multi-modal sensory input handling
- Memory Management: Automatic consolidation and decay
- Reasoning Coordination: Goal-directed inference execution
- Action Selection: Priority-based decision making
- Learning Integration: Experience-based adaptation
Memory System
Biologically-inspired memory architecture:
from cognito_sim_engine import MemoryManager, MemoryItem, MemoryType
# Create memory manager
memory = MemoryManager(working_capacity=7, decay_rate=0.02)
# Store different types of memories
working_memory_item = MemoryItem(
content="Current task: analyze data",
memory_type=MemoryType.WORKING,
importance=0.8
)
episodic_memory_item = MemoryItem(
content="Yesterday I learned about neural networks",
memory_type=MemoryType.EPISODIC,
importance=0.6
)
memory.store_memory(working_memory_item)
memory.store_memory(episodic_memory_item)
# Retrieve memories
relevant_memories = memory.search_memories("neural networks")
Reasoning Engine
Symbolic reasoning with multiple inference strategies:
from cognito_sim_engine import InferenceEngine, Rule, Fact, Goal
# Create inference engine
reasoner = InferenceEngine(depth_limit=10)
# Define reasoning rules
learning_rule = Rule(
conditions=[
Fact("wants_to_learn", ["?agent", "?topic"]),
Fact("has_resource", ["?agent", "?resource"]),
Fact("teaches", ["?resource", "?topic"])
],
conclusion=Fact("should_study", ["?agent", "?resource"]),
confidence=0.9,
name="learning_strategy"
)
reasoner.reasoner.add_rule(learning_rule)
# Define facts
reasoner.reasoner.add_fact(Fact("wants_to_learn", ["alice", "AI"]))
reasoner.reasoner.add_fact(Fact("has_resource", ["alice", "textbook"]))
reasoner.reasoner.add_fact(Fact("teaches", ["textbook", "AI"]))
# Perform inference
goal = Goal(
description="Learn about AI",
target_facts=[Fact("knows", ["alice", "AI"])]
)
result = reasoner.infer(goal, list(reasoner.reasoner.facts.values()))
print(f"Reasoning successful: {result.success}")
print(f"Recommended actions: {[a.name for a in result.recommended_actions]}")
🤖 Agent Types
CognitiveAgent
Basic cognitive agent with memory, reasoning, and learning:
from cognito_sim_engine import CognitiveAgent, AgentPersonality
# Create agent with custom personality
personality = AgentPersonality(
curiosity=0.8, # High exploration tendency
analyticalness=0.7, # Prefers logical reasoning
creativity=0.6 # Moderate creative problem solving
)
agent = CognitiveAgent(
agent_id="explorer_01",
name="Explorer",
personality=personality,
working_memory_capacity=7,
enable_metacognition=True
)
ReasoningAgent
Specialized for symbolic reasoning and logical problem solving:
from cognito_sim_engine import ReasoningAgent
reasoning_agent = ReasoningAgent("logician_01", "Dr. Logic")
# Enhanced reasoning capabilities with multiple strategies
# Automatic domain knowledge loading for problem-solving
LearningAgent
Focused on adaptive learning and skill acquisition:
from cognito_sim_engine import LearningAgent
learning_agent = LearningAgent("student_01", "Ada Learner")
# Multiple learning strategies: reinforcement, discovery, imitation
# Skill level tracking and adaptive strategy selection
MetaCognitiveAgent
Advanced agent with self-reflection and cognitive monitoring:
from cognito_sim_engine import MetaCognitiveAgent
meta_agent = MetaCognitiveAgent("philosopher_01", "Meta Thinker")
# Cognitive load monitoring
# Strategy effectiveness evaluation
# Self-model updating
🌍 Environment System
Create rich, interactive environments for agent simulation:
from cognito_sim_engine import CognitiveEnvironment, EnvironmentObject, Action
# Create environment
env = CognitiveEnvironment("Laboratory")
# Add interactive objects
microscope = EnvironmentObject(
name="microscope",
object_type="instrument",
position={"x": 5, "y": 3, "z": 1},
properties={"magnification": "1000x", "state": "available"},
interactable=True,
description="High-powered research microscope"
)
env.state.add_object(microscope)
# Add custom action handlers
def use_microscope(action, agent_id):
return True # Custom interaction logic
env.add_action_handler("use_microscope", use_microscope)
📚 Example Use Cases
1. Cognitive Architecture Research
# Study working memory limitations
config = SimulationConfig(working_memory_capacity=5) # Below normal capacity
agent = CognitiveAgent("test_subject", working_memory_capacity=5)
# Add multiple competing goals to test cognitive load
for i in range(10):
goal = Goal(f"Task {i}", priority=random.uniform(0.3, 0.9))
agent.add_goal(goal)
# Monitor performance degradation
metrics = engine.run_simulation()
2. Learning Strategy Comparison
# Compare different learning approaches
reinforcement_agent = LearningAgent("rl_agent")
reinforcement_agent.learning_strategy = LearningStrategy.REINFORCEMENT
discovery_agent = LearningAgent("discovery_agent")
discovery_agent.learning_strategy = LearningStrategy.DISCOVERY
# Run parallel simulations and compare performance
3. Metacognitive Development
# Study metacognitive development
meta_agent = MetaCognitiveAgent("developing_mind")
# Add metacognitive learning callback
def track_metacognition(agent, feedback):
insights = len(agent.metacognitive_insights)
print(f"Metacognitive insights: {insights}")
meta_agent.learning_callbacks.append(track_metacognition)
🔧 Configuration
Comprehensive configuration options for fine-tuning simulations:
config = SimulationConfig(
max_cycles=1000, # Simulation length
cycle_timeout=1.0, # Real-time cycle duration
working_memory_capacity=7, # Miller's magical number
attention_threshold=0.5, # Attention focus threshold
goal_timeout=300.0, # Goal expiration time
enable_metacognition=True, # Metacognitive capabilities
enable_learning=True, # Learning mechanisms
enable_visualization=False, # Visual debugging
memory_decay_rate=0.01, # Memory decay rate
attention_decay_rate=0.05, # Attention decay
reasoning_depth_limit=10, # Maximum reasoning depth
enable_metrics=True, # Performance tracking
random_seed=42 # Reproducible results
)
📊 Analysis and Visualization
Built-in tools for analyzing cognitive behavior:
# Get comprehensive agent state
cognitive_state = agent.get_cognitive_state()
# Export simulation data
session_data = engine.export_session("simulation.json")
agent_data = agent.export_agent_data()
# Memory system analysis
memory_stats = agent.memory_manager.get_memory_statistics()
print(f"Working memory usage: {memory_stats['working_memory']['usage']:.2f}")
print(f"Total memories: {memory_stats['total_memories']}")
# Reasoning analysis
reasoning_summary = agent.inference_engine.reasoner.get_knowledge_summary()
print(f"Facts: {reasoning_summary['total_facts']}")
print(f"Rules: {reasoning_summary['total_rules']}")
🧪 Research Applications
AGI Development
- Cognitive Architecture Testing: Validate theoretical cognitive models
- Scalability Studies: Test cognitive systems under varying loads
- Integration Research: Study interaction between cognitive subsystems
Psychology & Cognitive Science
- Memory Research: Investigate memory formation and retrieval patterns
- Attention Studies: Model attention allocation and switching
- Learning Research: Compare learning strategies and effectiveness
AI Safety & Alignment
- Goal Alignment: Study how agents pursue and modify goals
- Metacognitive Safety: Research self-reflective AI behavior
- Cognitive Containment: Test cognitive limitation strategies
🛠️ Development & Extension
Plugin Architecture
# Create custom cognitive modules
from cognito_sim_engine import BaseAgent
class EmotionalAgent(BaseAgent):
def __init__(self, agent_id, name=""):
super().__init__(agent_id, name)
self.emotions = {"joy": 0.5, "fear": 0.1, "anger": 0.0}
def perceive(self, perceptions):
# Custom emotional processing
pass
def reason(self):
# Emotion-influenced reasoning
pass
Custom Environments
# Create domain-specific environments
class SocialEnvironment(CognitiveEnvironment):
def __init__(self):
super().__init__("Social World")
self.social_dynamics = SocialDynamicsEngine()
def get_perceptions(self, agent_id=None):
# Add social perceptions
perceptions = super().get_perceptions(agent_id)
social_perceptions = self.social_dynamics.get_social_cues(agent_id)
return perceptions + social_perceptions
📖 Documentation
Comprehensive documentation is available at: https://krish567366.github.io/cognito-sim-engine
Documentation Sections
- Getting Started: Installation and basic usage
- Cognitive Theory: Theoretical foundations and design principles
- API Reference: Complete API documentation with examples
- Advanced Usage: Complex scenarios and customization
- Research Applications: Real-world research use cases
- Contributing: Development guidelines and contribution process
📦 Installation Options
PyPI (Recommended)
pip install cognito-sim-engine
Development Installation
git clone https://github.com/krish567366/cognito-sim-engine.git
cd cognito-sim-engine
pip install -e ".[dev,docs,visualization]"
Optional Dependencies
# For visualization capabilities
pip install cognito-sim-engine[visualization]
# For development tools
pip install cognito-sim-engine[dev]
# For documentation building
pip install cognito-sim-engine[docs]
🤝 Contributing
We welcome contributions from the AGI research community!
Areas for Contribution
- New Agent Architectures: Implement novel cognitive architectures
- Memory Models: Develop advanced memory systems
- Reasoning Engines: Create specialized reasoning capabilities
- Environment Types: Build domain-specific environments
- Analysis Tools: Develop cognitive behavior analysis tools
- Documentation: Improve documentation and tutorials
Getting Started
- Fork the repository
- Create a feature branch:
git checkout -b feature/amazing-feature - Make your changes and add tests
- Ensure all tests pass:
pytest - Submit a pull request
Development Setup
# Clone and setup development environment
git clone https://github.com/krish567366/cognito-sim-engine.git
cd cognito-sim-engine
# Install development dependencies
pip install -e ".[dev]"
# Run tests
pytest
# Run type checking
mypy cognito_sim_engine/
# Format code
black cognito_sim_engine/
isort cognito_sim_engine/
📄 License
This project is licensed under the MIT License - see the LICENSE file for details.
👨💻 Author
Krishna Bajpai
- Email: bajpaikrishna715@gmail.com
- GitHub: @krish567366
🙏 Acknowledgments
- Cognitive science research community for theoretical foundations
- Open source AI/ML community for inspiration and tools
- Beta testers and early adopters for valuable feedback
🔗 Links
- Documentation: https://krish567366.github.io/cognito-sim-engine
- PyPI Package: https://pypi.org/project/cognito-sim-engine/
- GitHub Repository: https://github.com/krish567366/cognito-sim-engine
- Issue Tracker: https://github.com/krish567366/cognito-sim-engine/issues
⭐ Support
If you find this project useful for your research, please consider:
- Starring the repository ⭐
- Citing the project in your research papers
- Contributing to the codebase
- Reporting issues and suggesting improvements
Cognito Simulation Engine - Pioneering the future of AGI research through advanced cognitive simulation.
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