rsksmart/rsk-mcp-server
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This is a Model Context Protocol (MCP) server that provides onchain tools for Claude AI, allowing it to interact with the Rootstock blockchain.
RSK MCP Server - Rootstock Blockchain Tools
Rootstock MCP Server is a Model Context Protocol (MCP) server that provides advanced tools for interacting with the Rootstock (RSK) blockchain. This project enables AI clients to seamlessly connect and execute blockchain operations.
π Key Features
- πΌ Wallet Management: Create, import, switch and manage multiple wallets
- π° Balance Queries: Check rBTC and ERC20 token balances
- πΈ Transfers: Send rBTC and tokens to other addresses
- π Transaction Tracking: Verify transaction status by hash
- π Contract Deployment: Deploy smart contracts on Rootstock
- β Contract Verification: Verify deployed contracts
- π Contract Interaction: Read data from verified contracts
- π History: Query transaction history
π Prerequisites
- Node.js v18 or higher
- npm or yarn
- TypeScript (included in dev dependencies)
Note: You will use this Model Context Protocol Server from a LLM Client (e.g Cursor, Claude, Warp, etc) which needs to be compatible with the MCP standard. Take into account there are 2 steps here:
- Installation and Build
- AI Client Configuration
IMPORTANT: You need to complete both settings to correctly use MCP within the Client.
π οΈ Installation and Build
1. Clone the Repository
git clone https://github.com/rsksmart/rsk-mcp-server
cd rsk-mcp-server
2. Install Dependencies
npm install
3. Build the Project
npm run build
This command:
- Compiles TypeScript to JavaScript in the
build/
folder - Makes the main file executable (
build/index.js
)
4. Verify Installation
node build/index.js
Important Note: For local running this MCP, your client will point to the
index.js
file created on thebuild
folder after building it.
βοΈ AI Client Configuration
π Remote Configuration
For Cursor IDE
In Cursor, go to Settings > Cursor Settings > Tools & Integrations
You will see an option to Add Custom MCP
And add to the JSON file:
{
"mcpServers": {
"rsk-mcp-server": {
"command": "npx",
"args": [
"-y",
"@rsksmart/rsk-mcp-server"
]
}
}
}
// The Args field contains the path to the index.js file created by the build.
Note: For install reference on Cursor, please follow these instructions Here
Once it is installed into Cursor, you should see something like:
Green dot indicates it was installed correctly.
For Claude Desktop (Anthropic)
Edit your Claude Desktop configuration file:
Open your Claude client, and then click on Settings/Developer
Click the βEdit Configβ button to open the configuration file and add the following configuration:
Note: This action creates a new configuration file if one doesnβt exist, or opens your existing configuration. The file is located at:
- macOS:
~/Library/Application Support/Claude/claude_desktop_config.json
- Windows:
%APPDATA%\Claude\claude_desktop_config.json
{
"mcpServers": {
"rsk-mcp-server": {
"command": "npx",
"args": [
"-y",
"@rsksmart/rsk-mcp-server"
]
}
}
}
// The Args field contains the path to the index.js file created by the build.
Note: For install reference on Claude, please follow these instructions Here
Once you have installed this MCP on the Claude client, you will see it once you click on the Search and tools
option under Web search option (see next image)
π Local Configuration
For Cursor IDE
In Cursor, go to Settings > Cursor Settings > Tools & Integrations
You will see an option to Add Custom MCP
And add to the JSON file:
{
"mcpServers": {
"rsk-mcp": {
"command": "node",
"args": ["/absolute/path/to/your/project/rsk-mcp-server/build/index.js"]
}
}
}
// The Args field contains the path to the index.js file created by the build.
Note: For install reference on Cursor, please follow these instructions Here
Once it is installed into Cursor, you should see something like:
Green dot indicates it was installed correctly.
For Claude Desktop (Anthropic)
Edit your Claude Desktop configuration file:
Open your Claude client, and then click on Settings/Developer
Click the βEdit Configβ button to open the configuration file and add the following configuration:
Note: This action creates a new configuration file if one doesnβt exist, or opens your existing configuration. The file is located at:
- macOS:
~/Library/Application Support/Claude/claude_desktop_config.json
- Windows:
%APPDATA%\Claude\claude_desktop_config.json
{
"mcpServers": {
"rsk-mcp": {
"command": "node",
"args": ["/absolute/path/to/your/project/rsk-mcp-server/build/index.js"],
"env": {}
}
}
}
// The Args field contains the path to the index.js file created by the build.
Note: For install reference on Claude, please follow these instructions Here
Once you have installed this MCP on the Claude client, you will see it once you click on the Search and tools
option under Web search option (see next image)
For Other MCP Implementations
Any MCP-compatible client can connect using:
node /path/to/project/rsk-mcp-server/build/index.js
π Remote Configuration (URL)
Note: This functionality will be available when the server is deployed to a public endpoint.
Remote Client Configuration
{
"mcpServers": {
"rsk-mcp": {
"url": "https://your-server.com/mcp-endpoint",
"headers": {
"Authorization": "Bearer your-api-key"
}
}
}
}
π§ Detailed Functionality
Once this MCP is installed on the client, you will be able to interact with it by prompt, using chat box, for example, a good prompt to start interacting with this MCP is to write a prompt like:
I would like to start interacting with Rootstock
Then it will require you to give permission to use the MCP tool, you click on accept, and then it should answer something like:
Perfect! The Rootstock CLI is now active and ready to help you interact with the Rootstock blockchain. Here are the available options:
Available Rootstock Operations:
πΌ wallet - Manage your wallet (create new, use existing, or import)
π° balance - Check wallet balances
πΈ transfer - Transfer RBTC or ERC20 tokens
π tx - Check transaction status
π deploy - Deploy a smart contract
β
verify - Verify a contract
π contract - Interact with a contract
π history - Check transaction history
β help - Display help
What would you like to do? If you don't have a wallet yet, I'd recommend starting with option 1 (wallet management) to create or import a wallet first. Then you can proceed with other operations like checking balances, transferring tokens, or deploying contracts.
Which option interests you?
You can continue the flow according to what you need to do.
1. πΌ Wallet Management
Available Tools:
start-wallet-interaction
: Initialize wallet managementcreate-wallet
: Create/import/manage wallets
Supported Operations:
π Create New Wallet
// Creates a wallet with secure password
{
walletOption: "π Create a new wallet",
walletName: "MyWallet",
walletPassword: "secure_password",
replaceCurrentWallet: false
}
π Import Existing Wallet
// Import using private key
{
walletOption: "π Import existing wallet",
walletName: "ImportedWallet",
privateKey: "0x...",
walletPassword: "secure_password"
}
π List Saved Wallets
// List all available wallets
{
walletOption: "π List saved wallets",
walletData: "my-wallets.json_content"
}
π Switch Active Wallet
// Switch to another wallet
{
walletOption: "π Switch wallet",
newMainWallet: "WalletName"
}
2. π° Balance Queries
Tool: check-balance
Supported Tokens:
- rBTC - Rootstock native token
- USDT - Tether USD
- DOC - Dollar on Chain
- BPRO - BitPro
- RIF - RIF Token
- FISH - Fish Token
- Custom Token - Any ERC20 token
Example:
{
testnet: true, // true for testnet, false for mainnet
token: "rBTC",
walletName: "MyWallet" // optional, uses current wallet if not specified
}
For Custom Tokens:
{
testnet: true,
token: "Custom Token",
customTokenAddress: "0x...", // token contract address
walletName: "MyWallet"
}
3. π Transaction Tracking
Tool: check-transaction
{
testnet: true, // network to check
txid: "0x..." // transaction hash (with or without 0x prefix)
}
Returned Information:
- Transaction status (pending/confirmed/failed)
- Block number
- Gas used
- Transfer details
- Timestamps
4. π Contract Deployment
Tool: deploy-contract
Requirements:
- Contract ABI (JSON)
- Compiled bytecode (hex)
- Constructor arguments (optional)
- Wallet with sufficient funds
Example:
{
testnet: true,
abiContent: `[{"inputs":[],"name":"myFunction"...}]`, // complete ABI
bytecodeContent: "0x608060405234801561001057600080fd5b50...", // bytecode
constructorArgs: ["arg1", "arg2"], // constructor arguments
walletData: "my-wallets.json_content",
walletPassword: "wallet_password"
}
5. β Contract Verification
Tool: verify-contract
Requirements:
- Deployed contract address
- Solidity source code
- Compilation metadata (JSON Standard Input)
- Constructor arguments used
Example:
{
testnet: true,
contractAddress: "0x...", // contract address
contractName: "MyContract", // exact name in source code
jsonContent: `{"language":"Solidity","sources":{...}}`, // compilation metadata
constructorArgs: ["arg1", "arg2"] // arguments used in deployment
}
6. π Contract Reading
Tool: read-contract
To List Available Functions:
{
testnet: true,
contractAddress: "0x..." // must be a verified contract
}
To Call a Function:
{
testnet: true,
contractAddress: "0x...",
functionName: "balanceOf", // view/pure function name
functionArgs: ["0x..."] // function arguments
}
7. π Supported Networks
Rootstock Mainnet
- RPC URL:
https://public-node.rsk.co
- Chain ID: 30
- Explorer:
https://explorer.rsk.co
Rootstock Testnet
- RPC URL:
https://public-node.testnet.rsk.co
- Chain ID: 31
- Explorer:
https://explorer.testnet.rsk.co
π Project Structure
rsk-mcp-server/
βββ src/
β βββ handlers/
β β βββ responsesHandler.ts # MCP response handling
β βββ tools/
β β βββ constants.ts # Constants and options
β β βββ handlers.ts # Auxiliary handlers
β β βββ schemas.ts # Zod validation schemas
β β βββ types.ts # TypeScript types
β βββ utils/
β β βββ responses.ts # Response utilities
β βββ index.ts # Main entry point
β βββ types.d.ts # Type declarations
βββ build/ # Compiled code (generated)
βββ package.json # Project configuration
βββ tsconfig.json # TypeScript configuration
βββ README.md # This documentation
π Security
Private Key Management
- Private keys are stored encrypted using AES-256
- Each wallet has its own unique IV (initialization vector)
- Passwords are never stored in plain text
Best Practices
- Use strong and unique passwords
- Maintain secure backups of
my-wallets.json
- Do not share configuration files
- Use testnet for testing
π Troubleshooting
Error: "Module not found"
npm install
npm run build
MCP Connection Error
- Verify absolute path in configuration
- Ensure the project is compiled
- Check MCP client logs
Wallet Issues
- Verify
my-wallets.json
format - Check password in
password.json
(in case you managed the password in a file) - Ensure sufficient funds for transactions
Contributing
We welcome contributions from the community. Please fork the repository and submit pull requests with your changes. Ensure your code adheres to the project's main objective.
Support
For any questions or support, please open an issue on the repository or reach out to the maintainers.
Disclaimer
The software provided in this GitHub repository is offered βas is,β without warranty of any kind, express or implied, including but not limited to the warranties of merchantability, fitness for a particular purpose, and non-infringement.
- Testing: The software has not undergone testing of any kind, and its functionality, accuracy, reliability, and suitability for any purpose are not guaranteed.
- Use at Your Own Risk: The user assumes all risks associated with the use of this software. The author(s) of this software shall not be held liable for any damages, including but not limited to direct, indirect, incidental, special, consequential, or punitive damages arising out of the use of or inability to use this software, even if advised of the possibility of such damages.
- No Liability: The author(s) of this software are not liable for any loss or damage, including without limitation, any loss of profits, business interruption, loss of information or data, or other pecuniary loss arising out of the use of or inability to use this software.
- Sole Responsibility: The user acknowledges that they are solely responsible for the outcome of the use of this software, including any decisions made or actions taken based on the softwareβs output or functionality.
- No Endorsement: Mention of any specific product, service, or organization does not constitute or imply endorsement by the author(s) of this software.
- Modification and Distribution: This software may be modified and distributed under the terms of the license provided with the software. By modifying or distributing this software, you agree to be bound by the terms of the license.
- Assumption of Risk: By using this software, the user acknowledges and agrees that they have read, understood, and accepted the terms of this disclaimer and assumes all risks associated with the use of this software.