Unleash the Power of Blockchain Data with UBOS and the Bankless Onchain MCP Server
In today’s rapidly evolving landscape, the fusion of Artificial Intelligence (AI) and blockchain technology presents unparalleled opportunities for innovation and disruption. UBOS, a full-stack AI Agent Development Platform, empowers businesses to orchestrate AI Agents, connect them with enterprise data, build custom AI Agents with their LLM models, and create sophisticated Multi-Agent Systems. Now, with seamless integration of the Bankless Onchain MCP Server, UBOS users can unlock the vast potential of blockchain data directly within their AI-powered applications.
The Bankless Onchain MCP (Model Context Protocol) Server acts as a crucial bridge, standardizing how applications provide context to Large Language Models (LLMs) and other AI models. It enables AI Agents to access and interact with on-chain data in a structured and efficient manner. This integration opens up a world of possibilities, allowing you to build AI Agents that can:
- Analyze blockchain transactions in real-time.
- Monitor smart contract states.
- Automate DeFi (Decentralized Finance) strategies.
- Enhance fraud detection mechanisms.
- Improve supply chain transparency.
- Provide data-driven insights for Web3 applications.
Key Features of the Bankless Onchain MCP Server
The Bankless Onchain MCP Server provides a comprehensive suite of tools for interacting with blockchain data, making it an invaluable asset for UBOS users. Here’s a detailed look at its key features:
1. Contract Operations
Read Contract State (
read_contract): This powerful tool allows AI Agents to directly read the state of smart contracts deployed on various blockchain networks. By specifying the network, contract address, method, input parameters, and expected output types, you can retrieve real-time data from the blockchain.- Use Case: Imagine an AI Agent designed to monitor the balance of a specific token in a user’s wallet. Using
read_contract, the agent can periodically query the token’s smart contract, providing the user with up-to-date balance information and triggering alerts if the balance falls below a certain threshold.
- Use Case: Imagine an AI Agent designed to monitor the balance of a specific token in a user’s wallet. Using
Get Proxy (
get_proxy): Many smart contracts utilize proxy patterns for upgradeability and flexibility. This tool allows you to retrieve the underlying implementation contract address for a given proxy contract. This is crucial for understanding the actual logic and functionality of the contract.- Use Case: When analyzing a complex DeFi protocol, you might encounter proxy contracts. Using
get_proxy, you can quickly identify the implementation contract and then useget_abiandget_sourceto understand the protocol’s underlying mechanics.
- Use Case: When analyzing a complex DeFi protocol, you might encounter proxy contracts. Using
Get ABI (
get_abi): The Application Binary Interface (ABI) is a crucial component for interacting with smart contracts. This tool allows you to fetch the ABI for a contract, providing a structured description of the contract’s methods, events, and data types.- Use Case: Before calling any method on a smart contract, your AI Agent needs to know the ABI.
get_abiprovides this information, allowing the agent to construct the correct function calls and interpret the returned data.
- Use Case: Before calling any method on a smart contract, your AI Agent needs to know the ABI.
Get Source (
get_source): For verified contracts, this tool retrieves the source code, ABI, compiler version, and other metadata. Having access to the source code is essential for in-depth analysis and understanding the contract’s security and functionality.- Use Case: When auditing a smart contract for potential vulnerabilities, access to the source code is indispensable.
get_sourceallows your AI Agent to automatically fetch the source code, which can then be analyzed for common security flaws.
- Use Case: When auditing a smart contract for potential vulnerabilities, access to the source code is indispensable.
2. Event Operations
Get Events (
get_events): Smart contracts emit events to signal state changes and other important occurrences. This tool allows you to fetch event logs for a contract based on specific topics, enabling your AI Agents to react to real-time events on the blockchain.- Use Case: Imagine an AI Agent monitoring a decentralized exchange (DEX). Using
get_events, the agent can track token swaps, liquidity additions, and other events, providing valuable insights into market activity and potential arbitrage opportunities.
- Use Case: Imagine an AI Agent monitoring a decentralized exchange (DEX). Using
Build Event Topic (
build_event_topic): Event topics are keccak256 hashes of the event signature. This tool allows you to generate an event topic signature from the event name and argument types. This is particularly helpful when filtering events.- Use Case: Before fetching any specific events, this tool allows you to build specific queries and retrieve only the events you’re interested in.
3. Transaction Operations
Get Transaction History (
get_transaction_history): This tool retrieves the transaction history for a given user address, providing insights into their on-chain activity. You can filter transactions by contract, method ID, and block range.- Use Case: An AI Agent designed to track user behavior on a blockchain game could use
get_transaction_historyto monitor their in-game purchases, trades, and other activities, providing personalized recommendations and insights.
- Use Case: An AI Agent designed to track user behavior on a blockchain game could use
Get Transaction Info (
get_transaction_info): This tool provides detailed information about a specific transaction, including the block number, timestamp, sender and receiver addresses, value, gas information, status, and receipt data.- Use Case: When investigating a suspicious transaction,
get_transaction_infoprovides a wealth of information, allowing your AI Agent to determine the transaction’s origin, purpose, and impact on the blockchain state.
- Use Case: When investigating a suspicious transaction,
Integrating the Bankless Onchain MCP Server with UBOS
Integrating the Bankless Onchain MCP Server with UBOS is straightforward. Follow these steps:
Install the Bankless Onchain MCP Server:
bash npm install @bankless/onchain-mcp
Set Your Bankless API Token:
Obtain your Bankless API token from https://docs.bankless.com/bankless-api/other-services/onchain-mcp and set it as an environment variable:
bash export BANKLESS_API_TOKEN=your_api_token_here
Configure UBOS to Use the MCP Server:
Add the following configuration to your UBOS app’s server configuration file:
{ “mcpServers”: { “bankless”: { “command”: “npx”, “args”: [ “@bankless/onchain-mcp” ], “env”: { “BANKLESS_API_TOKEN”: “your_api_token_here” } } } }
Example Use Cases with UBOS
Here are some concrete examples of how you can leverage the Bankless Onchain MCP Server within the UBOS platform:
- AI-Powered DeFi Portfolio Tracker: Create an AI Agent that monitors a user’s DeFi portfolio across multiple blockchain networks. The agent can use
read_contractto track token balances,get_eventsto monitor yield farming rewards, andget_transaction_historyto analyze past investment decisions. UBOS can then be used to present this information in a user-friendly dashboard and provide personalized investment recommendations. - Smart Contract Vulnerability Scanner: Develop an AI Agent that automatically scans smart contracts for common vulnerabilities. The agent can use
get_sourceto retrieve the contract’s source code, analyze it for potential security flaws, and generate detailed reports. UBOS can be used to integrate this agent into a CI/CD pipeline, ensuring that all smart contracts are thoroughly vetted before deployment. - Blockchain-Based Supply Chain Management: Build an AI Agent that tracks the movement of goods through a supply chain using blockchain technology. The agent can use
get_eventsto monitor key milestones, such as shipment arrival and customs clearance, andget_transaction_infoto verify the authenticity of transactions. UBOS can be used to integrate this agent with existing ERP systems, providing real-time visibility into the supply chain.
Error Handling
The Bankless Onchain MCP Server provides specific error types for different scenarios, allowing you to build robust and reliable AI Agents. These error types include:
BanklessValidationError: Indicates invalid input parameters.BanklessAuthenticationError: Indicates issues with the API token.BanklessResourceNotFoundError: Indicates that the requested resource was not found.BanklessRateLimitError: Indicates that the API rate limit has been exceeded.
By handling these errors gracefully, you can ensure that your AI Agents continue to function correctly even in the face of unexpected issues.
Conclusion
The integration of the Bankless Onchain MCP Server with UBOS unlocks a wealth of opportunities for building innovative AI-powered applications that leverage the power of blockchain data. By providing seamless access to on-chain information, this integration empowers you to create intelligent agents that can analyze transactions, monitor smart contracts, automate DeFi strategies, and much more. Embrace the future of AI and blockchain with UBOS and the Bankless Onchain MCP Server!
Bankless Onchain Server
Project Details
- vinhphamai23/onchain-mcp
- Last Updated: 4/20/2025
Recomended MCP Servers
Model Context Protocol (MCP) server that provides access to Azure Resource Graph queries. It allows you to retrieve...
MCP web research server (give Claude real-time info from the web)
a short description
Terraform Registry MCP Server
This MCP server integrates with the free IMF data API to provide a set of tools and resources...
A comprehensive MCP (Model Context Protocol) server for file system operations, providing Claude and other AI assistants with...





