Infinity Earnings Matrix β Autonomous Wealth Engine
Dream-Mind-Lucid Integration - SKALE Network
The copilot-instruction.py is an autonomous AI agent engine designed to operate within the Dream-Mind-Lucid ecosystem on the SKALE Network. It implements a multi-agent system that autonomously executes wealth generation strategies through dream mining, MEV extraction, and cross-chain arbitrage.
- Looter Agent - Harvests DREAM tokens from validated dreams
- MEVMaster Agent - Executes MEV (Maximal Extractable Value) strategies
- Arbitrader Agent - Performs cross-chain arbitrage for DREAM/SMIND/LUCID tokens
- π OneiroBot Agent - Ultimate dream guardian and Copilot companion for the Oneiro-Sphere
- Autonomous Decision Making: Makes intelligent decisions based on profit analysis
- Zero-Gas Transactions: Leverages SKALE's zero-gas features for cost-effective operations
- Memory Persistence: Maintains operational history in
iem_memory.json - ElizaOS Integration: Placeholder for future AI decision enhancement (currently in mock mode)
- SKALE Europa Hub: Chain ID 2046399126
- Zero Gas Costs: All transactions are gasless on SKALE
- Infura Fallback: Uses Infura RPC when available, falls back to SKALE RPC
- Dream-Mind-Lucid Compatible: Integrates with existing contract infrastructure
The Ultimate Dream Guardian and Copilot Companion for the Oneiro-Sphere!
OneiroBot is a specialized AI agent designed to monitor, optimize, and provide intelligent assistance for the Dream-Mind-Lucid ecosystem. It features a playful Grok-style personality and serves as your quantum dream guardian.
- π΅οΈ Dream Monitoring: Monitors dream submissions and consensus phases in real-time
- π§ Optimization Analysis: Suggests improvements for lucid block processing and NVM state transitions
- π₯ MCP Health Checks: Monitors MCP server health and deployment status
- π§ Quick Fix Proposals: Automatically proposes solutions for common issues
- π Grok Personality: Responds with playful, quantum-themed messaging
- π Proactive Alerts: Surfaces recommendations and alerts in Copilot Chat
OneiroBot is fully integrated with Copilot Chat and can be invoked using these commands:
# Summon OneiroBot and perform initial scan
python copilot-instruction.py "#summon_oneirobot"
python grok_copilot_launcher.py oneirobot summon
# Get comprehensive status and health check
python copilot-instruction.py "#oneirobot_status"
python grok_copilot_launcher.py oneirobot status
# Monitor dream submissions and consensus
python copilot-instruction.py "#oneirobot_scan"
python grok_copilot_launcher.py oneirobot scan
# Get optimization suggestions
python copilot-instruction.py "#oneirobot_optimize"
python grok_copilot_launcher.py oneirobot optimize
# Get quick fixes for specific issues
python copilot-instruction.py "#oneirobot_fix" "deployment"
python grok_copilot_launcher.py oneirobot fix deployment
# Show help and available commands
python copilot-instruction.py "#oneirobot_help"
python grok_copilot_launcher.py oneirobot helpπ The OneiroBot dreams in code! OneiroBot status: ACTIVE.
Performed 13 quantum operations across the Oneiro-Sphere!
π΅οΈ Dream Scan Complete | Dreams: 7 | Consensus: STABLE | Status: healthy
π§ OneiroBot Optimization Analysis:
β’ π Implement dream batch processing for improved throughput
⒠𧬠Consider quantum entanglement protocols for cross-chain consensus
β’ π Optimize IPFS integration for dream metadata storage
π§ OneiroBot Quick Fixes for deployment:
β’ π¦ Recompile contracts with latest Solidity version
β’ π Regenerate deployment keys and addresses
β’ π Verify network connectivity to SKALE Europa Hub
π§ͺ Test: python dream_mind_launcher.py
OneiroBot is integrated with the MCP (Model Context Protocol) servers and provides the following tools:
- summon_oneirobot() - Summon OneiroBot and perform health checks
- oneirobot_status() - Get comprehensive status and health information
- oneirobot_scan() - Monitor dream submissions and consensus state
- oneirobot_optimize() - Get optimization suggestions for the Oneiro-Sphere
- oneirobot_fix(issue_type) - Get quick fix suggestions for specific issues
These tools are available in both dream_mind_launcher.py and can be accessed via Copilot Chat in supported environments.
# Install dependencies
pip install -r requirements.txtConfigure your .env file:
INFURA_PROJECT_ID=your-infura-api-key # Optional
BICONOMY_API_KEY=your-biconomy-api-key # Future use
DEPLOYER_KEY=your-wallet-private-key # For real deployments
SKALE_CHAIN_ID=2046399126 # SKALE Europa Hub
FORWARDER_ADDRESS=0xyour-biconomy-forwarder # Future use# Run the full AI Agent Engine (continuous)
python copilot-instruction.py
# Run a quick demonstration (3 cycles)
python demo_ai_agent.py
# Run comprehensive tests
python test_copilot_instruction.pyπ DREAM-MIND-LUCID: Infinity Earnings Matrix
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β
Connected to SKALE Network: https://mainnet.skalenodes.com/v1/elated-tan-skat
π‘ Chain ID: 2046399126
π€ AI Orchestrator initialized
π Agents loaded: 3
π OneiroBot guardian: ACTIVE
π Network: SKALE Europa (Chain ID: 2046399126)
β‘ Gas cost: 0 SKL (zero-gas network)
π§ ElizaOS: Mock mode
π Starting Infinity Earnings Matrix...
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π Cycle #1 - 2025-09-02 05:53:05
==================================================
[π§ ] AI Decision: Execute MEV strategy on WETH/USDC pool
[MEV Master] Front-running opportunities in WETH/USDC...
[β
] MEV TX: 0xfff...baa4
[π°] Profit: 3120 tokens from WETH/USDC
[β
] Decision executed successfully
[β°] Cycle 1 complete. Sleeping 60s...
- Purpose: Harvest DREAM tokens from validated dreams
- Strategy: Monitors dream validation events and claims rewards
- Typical Yield: ~1,850 DREAM tokens per operation
- Purpose: Extract MEV opportunities across DEX pools
- Strategy: Front-running and sandwich attacks on profitable transactions
- Typical Profit: ~3,120 tokens per operation
- Purpose: Cross-chain arbitrage for ecosystem tokens
- Strategy: Price difference exploitation between chains/DEXs
- Typical Profit: ~2,430 tokens per operation
- Purpose: Dream monitoring, optimization, and Copilot assistance
- Strategy: Proactive analysis, health monitoring, and intelligent recommendations
- Capabilities: Dream consensus monitoring, MCP health checks, optimization suggestions, quick fixes
- Personality: Grok-style quantum dream guardian with playful responses
# Check OneiroBot status
python copilot-instruction.py "#oneirobot_status"
# If issues persist, try refreshing
python copilot-instruction.py "#summon_oneirobot"# Install missing dependencies
pip install web3 py-solc-x
# For full functionality (optional)
pip install -r requirements.txt# OneiroBot can help diagnose network issues
python copilot-instruction.py "#oneirobot_fix" "network"
# Check MCP server health
python copilot-instruction.py "#oneirobot_scan"# Get optimization suggestions
python copilot-instruction.py "#oneirobot_optimize"
# Get performance-specific fixes
python copilot-instruction.py "#oneirobot_fix" "performance"# Get deployment-specific troubleshooting
python copilot-instruction.py "#oneirobot_fix" "deployment"
# Test deployment pipeline
python dream_mind_launcher.py| Command | Description | Example |
|---|---|---|
#summon_oneirobot |
Summon OneiroBot and perform initial scan | python copilot-instruction.py "#summon_oneirobot" |
#oneirobot_status |
Get status and health check | python grok_copilot_launcher.py oneirobot status |
#oneirobot_scan |
Monitor dream submissions | python copilot-instruction.py "#oneirobot_scan" |
#oneirobot_optimize |
Get optimization suggestions | python copilot-instruction.py "#oneirobot_optimize" |
#oneirobot_fix [type] |
Get quick fixes | python copilot-instruction.py "#oneirobot_fix" "deployment" |
#oneirobot_help |
Show help message | python copilot-instruction.py "#oneirobot_help" |
If OneiroBot is not working correctly, you can debug by:
- Check agent memory: Look at
iem_memory.jsonfor OneiroBot activities - Run tests:
python test_copilot_instruction.pyto validate all functionality - Check integration: Test via
python grok_copilot_launcher.py oneirobot summon - MCP health: Use
#oneirobot_statusto check MCP server connectivity
The orchestrator uses a rule-based system (with future ElizaOS enhancement):
- Profit Analysis: Evaluates current profits from all agents
- Strategy Selection: Chooses highest-yield strategy
- Execution: Deploys appropriate agent for maximum efficiency
- Memory Update: Records results for future decision making
- >3000 profit: Execute MEV or arbitrage strategies
- >2000 profit: Run cross-chain arbitrage
- <2000 profit: Focus on dream harvesting and staking
All operations are logged to iem_memory.json:
{
"lastDeployed": {...},
"loot": [
{
"agent": "MEVMaster",
"action": "frontrun",
"profit": 3120,
"txHash": "0x...",
"timestamp": 1725255185.5,
"gasUsed": 0
}
],
"cycles": [...],
"profits": {...}
}The AI Agent Engine seamlessly integrates with the existing ecosystem:
- Shares Memory: Uses the same
iem_memory.jsonas deployment agents - SKALE Network: Operates on the same zero-gas infrastructure
- Token Compatibility: Works with DREAM, SMIND, and LUCID tokens
- Contract Interaction: Can interface with deployed OneiroSphere contracts
# Future implementation
eliza = ElizaCore(api_key=os.getenv("ELIZAOS_API_KEY"))
decision = eliza.ask(f"Profits: {profits}. What should I do?")# Future implementation
biconomy = Biconomy(w3, api_key=BICONOMY_KEY)
tx = biconomy.sendGasless("contract.method()", address)# Future implementation
safe = GnosisSafe(address="0x...")
proposal = safe.propose_transaction(tx_data)python test_copilot_instruction.py- β Individual agent functionality
- β Orchestrator decision making
- β Memory persistence
- β Network connectivity handling
- β Error handling and recovery
- Private Keys: Never commit private keys to version control
- Network Simulation: Runs safely in simulation mode without private keys
- Memory Isolation: Agent operations are logged but isolated
- Error Handling: Graceful degradation on network failures
-
Network Connection Failed
β Failed to connect to https://mainnet.skalenodes.com/v1/elated-tan-skat π Running in simulation mode...Solution: This is normal - the engine runs in simulation mode for testing
-
Module Import Error
ModuleNotFoundError: No module named 'biconomy'Solution: This is expected - Biconomy SDK is not available on PyPI yet
-
Memory File Permissions
PermissionError: [Errno 13] Permission denied: 'iem_memory.json'Solution: Ensure write permissions in the directory
Add debug logging by modifying the agent classes:
import logging
logging.basicConfig(level=logging.DEBUG)- Fork the Dream-Mind-Lucid repository
- Create a feature branch
- Add tests for new functionality
- Ensure all tests pass
- Submit a pull request
Part of the Dream-Mind-Lucid project - see LICENSE for details.
Last Updated: September 2, 2025
Dream-Mind-Lucid: Where AI meets the quantum realm of dreams πβ¨