ai-memecoin-trading-bot

Continuously scans Solana and Base blockchain for newly deployed tokens using on-chain event listeners, then applies heuristic-based honeypot detection by analyzing contract code patterns, liquidity lock status, and owner privilege levels. The system fetches contract bytecode, parses for common rug-pull signatures (e.g., pausable transfers, owner mint functions), and cross-references against known malicious patterns to filter out scams before trading logic engages.

Coordinates multiple specialized AI agents (analysis agent, execution agent, risk agent) that operate concurrently to evaluate trading opportunities, execute swaps, and enforce risk controls. Each agent runs independently with shared state, communicating via message passing or event-driven patterns to make trading decisions without human intervention. The architecture allows agents to specialize: one analyzes token fundamentals, another executes transactions, a third monitors portfolio risk in real-time.

Analyzes token trading potential by combining technical indicators (price momentum, volume trends, volatility) with on-chain metrics (holder distribution, liquidity depth, transaction patterns) to compute a probabilistic win score. The system likely uses weighted scoring or machine learning inference to combine signals, outputting a 0-100 probability that a trade will be profitable within a defined timeframe. This informs position sizing and entry/exit decisions.

Executes buy and sell orders on Solana and Base DEXes (Raydium, Uniswap, etc.) by constructing and signing transactions, routing through optimal liquidity pools to minimize slippage, and handling transaction confirmation. The system abstracts away DEX-specific APIs, likely using a unified swap interface that queries multiple pools, selects the best route, and executes with configurable slippage tolerance and gas price parameters. Includes retry logic for failed transactions and mempool monitoring.

Continuously tracks open positions, calculates portfolio-level risk metrics (total exposure, drawdown, win rate), and enforces hard stops (max loss per trade, max portfolio drawdown, position size limits). The system monitors each position's P&L in real-time, triggers stop-loss or take-profit orders when thresholds are breached, and prevents new trades if risk limits are exceeded. Likely uses a position tracker that updates on every price tick and a risk engine that evaluates constraints before trade execution.

Provides a web-based UI for monitoring bot activity, viewing open positions, checking portfolio P&L, and manually controlling trading parameters (enable/disable trading, adjust risk limits, trigger manual trades). The dashboard connects to the bot via API or WebSocket, displaying real-time updates of trades executed, positions held, and risk metrics. Allows operators to pause the bot, adjust settings, or manually override decisions without restarting the system.

Allows traders to define and adjust trading strategy parameters (entry signals, exit rules, position sizing, risk limits) via configuration files or UI, and provides backtesting capability to evaluate strategy performance on historical data before deploying live. The system likely loads strategy configs, replays historical market data, simulates trades, and reports metrics (win rate, Sharpe ratio, max drawdown) to validate strategy viability. Enables rapid iteration on strategy tuning without risking capital.

Manages private keys and signs transactions for both Solana and Base blockchains, supporting multiple wallet formats (keypair files, seed phrases, hardware wallet integration). The system securely stores credentials, constructs unsigned transactions, signs them with the appropriate key, and submits to the blockchain. Handles chain-specific signing requirements (Solana's recent blockhash, Base's EIP-1559 gas pricing) transparently to the trading logic.

Uses event listeners to monitor blockchain state changes (new tokens, price updates, holder changes) and triggers trading logic reactively rather than polling. The system subscribes to relevant events (token creation, swap events, transfer events), processes them asynchronously, and updates internal state. This architecture enables low-latency response to market opportunities and reduces RPC load compared to continuous polling.