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Typescript SDK

Installation​

To add the Renegade SDK to your project, install the required packages.

npm install @renegade-fi/node@latest @wagmi/core viem@2.x

This SDK is responsible for interacting with a relayer. Some actions, such as createWallet or deposit, require using your Ethereum wallet to sign messages or approve tokens. To perform these actions, we recommend using wagmi and viem.

Create Config​

Create and export a new Renegade config using createConfig.

import { createConfig } from "@renegade-fi/node"
import { createPublicClient, http } from 'viem'
import { arbitrum } from 'viem/chains'
 
const viemClient = createPublicClient({ 
  chain: arbitrum,
  transport: http()
})

export const config = createConfig({
  darkPoolAddress: "0x30bd8eab29181f790d7e495786d4b96d7afdc518",
  priceReporterUrl: "mainnet.price-reporter.renegade.fi",
  relayerUrl: "mainnet.cluster0.renegade.fi",
  viemClient,
})
tip

Follow the instructions here to properly configure viemClient for either the Arbitrum One chain or the Arbitrum Sepolia chain, depending on which environment you want to use.

note

darkPoolAddress is the address of the darkpool proxy contract, not the implementation contract itself. You can find the darkpool proxy address for your environment here.

Use the SDK​

Now, you can pass the config to use actions.

import { backOfQueueWallet } from "@renegade-fi/node"

const wallet = await getBackOfQueueWallet(config)

console.log("Wallet balances: ", wallet.balances)

Environment Setup​

note

You must expose a TOKEN_MAPPING environment variable to use the SDK. You can do so by adding a .env file in the root of your project. See this repo for an example. You can find the token mapping for your environment here.

We recommend using Node v22 as it provides a WebSocket client to Node.js without external dependencies. If you are on a lower version of Node, you should provide your own WebSocket client, such as ws.

This SDK makes exclusive use of ES Modules. Check out this guide for more info on ESM support and Frequently Asked Questions across various tools and setups.

For Typescript configuration, check out this example repo for a reference tsconfig.json.

Protocol Core Concepts​

Relayer​

A relayer node is resposible for the matching and settlement of orders. Each individual relayer manages one or more wallets, meaning they are able to view the plaintext wallet but are unable to modify a wallet. In order to modify a wallet (placing orders, depositing assets, etc.), users sign updates to their wallet state and queue asynchronous “tasks” in the relayer.

note

Relayers manage task queues for each wallet, which means you do not necessarily need to wait for a task to complete before creating a new task. This is why two functions exist for fetching a wallet's state: getWalletFromRelayer (current wallet state) and getBackOfQueueWallet (wallet state after current task queue is cleared).

Wallet​

A wallet is a data structure that contains a user's balances, orders, and keys. To create a wallet, you must sign a message using your Ethereum wallet to generate a derivation key. This derivation key is used to derive the required fields of a wallet, such as the keychain. Learn more about keychains here.

SDK Core Concepts​

Config​

The Config object is responsible for storing Renegade wallet state and internals. Most actions require a Config object to be passed as the first argument, as it contains the derivation key used to derive keys used to sign API requests and wallet updates.

Auth Config​

The AuthConfig object is specifically used to interact with the relayer using API keys. If you are using a managed Renegade wallet, you will not need to interact with this object. If you are a permissioned user with API keys, you should follow the instructions here to create an AuthConfig object.

External Config​

The ExternalConfig object is used to interact with the relayer using an Externally Managed Wallet. The main difference between this and the Config object is that the ExternalConfig object does not contain a derivation key. Instead, the user will derive required fields of a wallet, such as the keychain, and custody the wallet secrets themselves. Learn more about Externally Managed Wallets here.

Actions​

This SDK exposes actions that are used to interact with a relayer, such as fetching a wallet's state or placing an order. Actions that access private wallet data require API authorization headers, which are automatically added for you when using the SDK. Browse the list of available actions below.

Types​

This SDK provides types for various data structures used in the API.

  • Wallet: contains a user's balances, orders, and keys.
  • Order: contains an order's parameters.
  • Balance: contains the amount of an ERC-20 token a user has in addition to the fee amount owed for that token.
  • KeyChain: contains a user's key hierarchy as defined here.
  • OrderMetadata: contains useful metadata such as the order's ID, status, creation time, and PartialOrderFills since creation.
  • Task: contains a task's ID, status, type, and creation time.

Token​

The Token class is used to store ERC-20 token metadata. It encapsulates information such as the token's address, name, decimals, and ticker symbol. This metadata is sourced from the TOKEN_MAPPING defined in your .env file.

Import

import { Token } from "@renegade-fi/node"

Properties

  • address: The address of the ERC-20 token.
  • name: The name of the token.
  • decimals: The number of decimals the token uses.
  • ticker: The ticker symbol of the token.

Static Methods

static findByTicker(ticker: string): Token

Returns

  • Token - The Token instance matching the given ticker.

Throws

  • Error - If no token with the given ticker is found in the TOKEN_MAPPING.
static findByAddress(address: `0x${string}`): Token

Returns

  • Token - The Token instance matching the given address.

Throws

  • Error - If no token with the given address is found in the TOKEN_MAPPING.

Usage

import { Token } from "@renegade-fi/node"

const usdc = Token.findByTicker("USDC")

console.log("USDC address: ", usdc.address)

const weth = Token.findByAddress("0xdf8d259c04020562717557f2b5a3cf28e92707d1")

console.log("WETH address: ", weth.address)

Configuration​

createConfig​

Import

import { createConfig } from "@renegade-fi/node"

Usage

import { createConfig } from "@renegade-fi/node"
import { createPublicClient, http } from 'viem'
import { arbitrum } from 'viem/chains'
 
const publicClient = createPublicClient({ 
  chain: arbitrum,
  transport: http()
})

export const config = createConfig({
  darkPoolAddress: "0x30bd8eab29181f790d7e495786d4b96d7afdc518",
  priceReporterUrl: "mainnet.price-reporter.renegade.fi",
  relayerUrl: "mainnet.cluster0.renegade.fi",
  viemClient: publicClient,
})

Parameters

  • darkPoolAddress
    • 0x${string}
    • The darkpool contract’s address.
  • priceReporterUrl
    • string
    • The price reporter’s URL.
  • relayerUrl
    • string
    • The relayer’s URL.
  • viemClient
    • PublicClient
    • Viem client used for wallet specific tasks e.g. signing a message.

Return Type

import { type Config } from '@renegade-fi/node'

createAuthConfig​

Import

import { createAuthConfig } from "@renegade-fi/node"

Usage

import { createAuthConfig } from "@renegade-fi/node"
 
export const config = createAuthConfig({
  authServerUrl: "https://mainnet.auth-server.renegade.fi:3000",
  apiKey: API_KEY,
  apiSecret: API_SECRET,
});

Parameters

  • authServerUrl
    • string
    • The auth server’s URL.
  • apiKey
    • string
    • The API key. Used to authorize requests to the server.
  • apiSecret
    • string
    • The API secret. Used to sign requests to the server.

Return Type

import { type AuthConfig } from '@renegade-fi/node'

createExternalKeyConfig​

Creates a configuration object for interacting with the relayer using an externally managed wallet. The required secrets should be obtained from generateWalletSecrets first.

Import

import { createExternalKeyConfig } from "@renegade-fi/node"

Parameters

  • signMessage: (message: string) => Promise<string>
    • Function that signs messages using ECDSA secp256k1
    • Must return signature as hex string with recovery bit (r[32] || s[32] || v[1])
    • Must use raw message (no Ethereum message prefix)
  • publicKey: string
    • The public key corresponding to your signing function
    • Used to verify signatures during API requests
  • symmetricKey: string
    • Generated symmetric key for API authentication
    • Obtained from generateWalletSecrets
  • walletId: string
    • Unique identifier for your wallet
    • Obtained from generateWalletSecrets
  • relayerUrl: string
    • HTTP URL of the relayer
  • websocketUrl: string
    • WebSocket URL of the relayer
  • darkPoolAddress
    • 0x${string}
    • The darkpool contract’s address.
  • viemClient
    • PublicClient
    • Viem client used for wallet specific tasks e.g. signing a message.

Basic Example

import { createExternalKeyConfig } from "@renegade-fi/node"
import { createPublicClient, http } from 'viem'
import { arbitrumSepolia } from 'viem/chains'
 
const publicClient = createPublicClient({ 
  chain: arbitrumSepolia,
  transport: http()
})
const config = createExternalKeyConfig({
  signMessage,
  publicKey: "0x04800db50009a01fab58a239f204ca14e85682ca0991cb6914f34c4fbd0131eedb54d0ccbe392922e57486b031779bf8b6feab57971c2c406df291c0ab9c529a3d",
  symmetricKey: walletSecrets.symmetric_key,
  walletId: walletSecrets.wallet_id,
  relayerUrl: "https://testnet.cluster0.renegade.fi:3000",
  websocketUrl: "wss://testnet.cluster0.renegade.fi:4000",
  darkPoolAddress: "0x9af58f1ff20ab22e819e40b57ffd784d115a9ef5",
  viemClient: publicClient,
});

Signing Function Example

// Example signing function implementation
const signMessage = async (message: string) => {
  // Validate input
  if (!isHex(message)) {
    throw new Error("Message must be a hex string");
  }

  // Hash the raw message (no Ethereum prefix)
  const hashedMessage = keccak256(message);
  
  try {
    // Generate secp256k1 signature
    const sig = await secp.signAsync(
      hashedMessage.slice(2),
      signingKey.slice(2),
      { lowS: true, extraEntropy: false }
    );

    // Format as r[32] || s[32] || v[1]
    return concatHex([
      numberToHex(sig.r, { size: 32 }),
      numberToHex(sig.s, { size: 32 }),
      numberToHex(sig.recovery ? 1 : 0, { size: 1 }),
    ]);
  } catch (error) {
    throw new Error(`Failed to sign message: ${error.message}`);
  }
};
Important

The signMessage function and publicKey must form a valid signing pair. The relayer will verify that signatures produced by signMessage can be verified using publicKey.

Return Type

import { type ExternalConfig } from '@renegade-fi/node'

Actions​

createWallet​

Action for starting a create wallet task on your connected relayer.

Import

import { createWallet } from "@renegade-fi/node"

Usage

import { createWallet, ROOT_KEY_MESSAGE_PREFIX } from "@renegade-fi/node"
import { privateKeyToAccount } from "viem/accounts"
import { arbitrum } from "viem/chains"
 
const account = privateKeyToAccount('0xac0974bec39a17e36ba4a6b4d238ff944bacb478cbed5efcae784d7bf4f2ff80') 

const seed = await account.signMessage({
  message: `${ROOT_KEY_MESSAGE_PREFIX} ${arbitrum.id}`,
})

config.setState((x) => ({ ...x, seed }))

await createWallet(config).then(() => console.log("Finished creating a wallet"))

Return Type

Promise<void>

Promise that resolves when the create wallet task has finished and the wallet has successfully been fetched from the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • a wallet with the same wallet ID already exists in the state of the connected relayer

lookupWallet​

Action for starting a lookup wallet task on your connected relayer.

Import

import { lookupWallet } from "@renegade-fi/node"

Usage

import { lookupWallet } from "@renegade-fi/node"
import { arbitrum } from "viem/chains"
 
config.setState((x) => ({ ...x, seed }))

await lookupWallet(config).then(() => console.log('Finished looking up wallet'))

Return Type

Promise<void>

Promise that resolves when the lookup wallet task has finished and the wallet has successfully been fetched from the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • a wallet with the same wallet ID already exists in the state of the connected relayer
  • a wallet was not able to be found on-chain

getWalletFromRelayer​

Action for fetching a wallet’s state from your connected relayer.

Import

import { getWalletFromRelayer } from "@renegade-fi/node"

Usage

const wallet = await getWalletFromRelayer(config)

console.log("Wallet balances: ", wallet.balances)

Return Type

Wallet

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the wallet is not currently indexed by your connected relayer, in which case you should createWallet or lookupWallet
  • the API request authorization is incorrect / missing

getBackOfQueueWallet​

Action for fetching the back of queue wallet state from your connected relayer.

note

Your connected relayer will manage a queue of tasks for you. By fetching the back of queue wallet, you are fetching your wallet state after all tasks in the queue have completed, which may not be the case. If a task fails, all subsequent tasks will transition to the Failed state and your queue will be cleared.

Import

import { getBackOfQueueWallet } from "@renegade-fi/node"

Usage

const wallet = await getBackOfQueueWallet(config)

console.log("Wallet balances: ", wallet.balances)

Return Type

Wallet

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the wallet is not currently indexed by your connected relayer, in which case you should createWallet or lookupWallet
  • the API request authorization is incorrect / missing

deposit​

Action for starting a deposit task on your connected relayer. Transfers ERC-20 tokens from your Arbitrum address to your Renegade wallet.

warning

You most likely want to use executeDeposit instead, as it will check for and execute ERC-20 allowances and permits as needed.

Import

import { deposit } from "@renegade-fi/node"

Usage

const { taskId } = await deposit(config, {
  fromAddr: "0xd8dA6BF26964aF9D7eEd9e03E53415D37aA96045",
  mint: "0xdf8d259c04020562717557f2b5a3cf28e92707d1",
  amount: BigInt(1000000),
  permitNonce: nonce,
  permitDeadline: deadline,
  permit: signature,
})

Parameters

  • fromAddr
    • 0x${string}
    • Account to transfer ERC-20 from.
  • mint
    • 0x${string}
    • ERC-20 contract address.
  • amount
    • bigint
    • Amount to deposit (should be multiplied by the number of decimals the ERC-20 supports)
  • permitNonce
    • bigint
    • A unique number, chosen by our app, to identify this permit. Once a permit is consumed, any other permit using that nonce will be invalid.
  • permitDeadline
    • bigint
    • The latest possible block timestamp for when this permit is valid.
  • permit
    • 0x${string}
    • The corresponding EIP-712 signature for the permit2 message, signed by owner. If the recovered address from signature verification does not match owner, the call will fail.

Return Type

Promise<{ taskId: string }>

Promise that resolves to the ID of the deposit task in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the provided mint does not exist in the token mapping
  • the provided amount is less than the minimum transfer amount set by your connected relayer (currently 1 USDC)
  • the wallet update signature is incorrect / missing
  • the Permit2 permit is incorrect / missing
  • the API request authorization is incorrect / missing

executeDeposit​

Action for starting a deposit task on your connected relayer, sending a transaction to approve the ERC-20 and signing a Permit2 permit if needed. Transfers ERC-20 tokens from your Arbitrum address to your Renegade wallet.

Import

import { executeDeposit } from "@renegade-fi/node"

Usage

import { createPublicClient, http } from "viem"
import { arbitrum } from "viem/chains"
import { createConfig as createWagmiConfig } from '@wagmi/core'

// Wagmi config
const viemConfig = createWagmiConfig({
  chains: [arbitrum],
  transports: {
    [arbitrum.id]: http(),
  },
})

const account = privateKeyToAccount('0xac0974bec39a17e36ba4a6b4d238ff944bacb478cbed5efcae784d7bf4f2ff80') 

const walletClient = createWalletClient({ 
  account, 
  chain: arbitrum,
  transport: http()
})

await executeDeposit(config, {
  mint: "0xaf88d065e77c8cc2239327c5edb3a432268e5831",
  amount: BigInt(1000000),
  permit2Address: "0x000000000022D473030F116dDEE9F6B43aC78BA3",
  walletClient,
  viemConfig,
  awaitTask: true,
})

Parameters

  • mint
    • 0x${string}
    • ERC-20 contract address.
  • amount
    • bigint
    • Amount to deposit (should be multiplied by the number of decimals the ERC-20 supports)
  • permit2Address
    • 0x${string}
    • Permit2 contract address.
  • walletClient
  • viemConfig
    • Config
    • wagmi specific config for using wagmi actions
  • awaitTask (optional)
    • boolean
    • Whether or not to await task completion before resolving.

Return Type

Promise<{ taskId: string }>

Promise that resolves to the ID of the deposit task in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the provided mint does not exist in the token mapping
  • the provided amount is less than the minimum transfer amount set by your connected relayer (currently 1 USDC)
  • the provided wallet client is not configured properly
  • the provided wagmi config is not configured properly
  • the API request authorization is incorrect / missing
  • the provided RenegadeConfig does not have a viemClient

withdraw​

Action for starting a withdraw task on your connected relayer. Transfers ERC-20 tokens from your Renegade wallet to your Arbitrum address.

warning

You most likely want to use executeWithdrawal instead, as it will check for and pay fees if needed.

Import

import { payFees, withdraw } from "@renegade-fi/node"

Usage

import { payFees, withdraw } from "@renegade-fi/node"
await payFees(config)
await withdraw(config, {
  mint: "0xdf8d259c04020562717557f2b5a3cf28e92707d1",
  amount: BigInt(1000000),
  destinationAddr: "0xd8dA6BF26964aF9D7eEd9e03E53415D37aA96045",
})

Parameters

  • destinationAddr
    • 0x${string}
    • Account to transfer ERC-20 to.
  • mint
    • ERC-20 contract address.
  • amount
    • bigint
    • Amount to withdraw (must be multiplied by the number of decimals the ERC-20 supports)

Return Type

Promise<{ taskId: string }>

Promise that resolves to the ID of the withdraw task in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the provided mint does not exist in the token mapping
  • the provided amount is less than the minimum transfer amount set by your connected relayer (currently 1 USDC)
  • there exist one or more balances with non-zero fees, meaning you must pay fees
  • the API request authorization is incorrect / missing

executeWithdrawal​

Action for starting a withdraw task on your connected relayer, paying fees if needed. Transfers ERC-20 tokens from your Renegade wallet to your Arbitrum address.

Import

import { executeWithdrawal } from "@renegade-fi/node"

Usage

await executeWithdrawal(config, {
  destinationAddr: "0xd8dA6BF26964aF9D7eEd9e03E53415D37aA96045",
  mint: "0xdf8d259c04020562717557f2b5a3cf28e92707d1",
  amount: BigInt(1000000),
  awaitTask: true,
})

Parameters

  • destinationAddr
    • 0x${string}
    • Account to transfer ERC-20 to.
  • mint
    • 0x${string}
    • ERC-20 contract address.
  • amount
    • bigint
    • Amount to withdraw (should be multiplied by the number of decimals the ERC-20 supports)
  • awaitTask (optional)
    • boolean
    • Whether or not to await task completion before resolving.

Return Type

Promise<{ taskId: string }>

Promise that resolves to the ID of the withdraw task in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the provided mint does not exist in the token mapping
  • the provided amount is less than the minimum transfer amount set by your connected relayer (currently 1 USDC)
  • the API request authorization is incorrect / missing

payFees​

Action for starting necessary payFee task(s) on your connected relayer.

warning

You most likely will not invoke this function directly, as it is part of the executeWithdrawal function.

Import

import { payFees } from "@renegade-fi/node"

Usage

await payFees(config)

Return Type

Promise<{ taskIds: string[] }>

Promise that resolves to an array of IDs of payFee tasks in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the API request authorization is incorrect / missing

createOrder​

Action for starting a place order task on your connected relayer.

Import

import { createOrder } from "@renegade-fi/node"

Usage

await createOrder(config, {
  base: "0xc3414a7ef14aaaa9c4522dfc00a4e66e74e9c25a",
  quote: "0xdf8d259c04020562717557f2b5a3cf28e92707d1",
  side: "buy",
  amount: BigInt(1000000000000000000),
  worstCasePrice: ((4000 * 1.5) * 10 ** (6 - 18)).toString(), // For a buy order: maximum price of 6000 USDC per ETH
  minFillSize: BigInt(100000000000000000) // Minimum fill size of 0.1 ETH
})

Parameters

  • base
    • 0x${string}
    • ERC-20 contract address of the base asset.
  • quote
    • 0x${string}
    • ERC-20 contract address of the quote asset (must be USDC).
  • side
    • "buy" | "sell"
    • The side this order is for
  • amount
    • bigint
    • Amount to place the order for (should be multiplied by the number of decimals the ERC-20 supports)
  • worstCasePrice (optional)
    • string
    • A number formatted as a string representing the worst case price that the order may be executed at. For buy side orders this is a maximum price, for sell side orders this is a minimum price.
    • If no worst case price is provided, the action will fall back to setting default values (u64::MAX for buy side orders and 0 for sell side orders)
    • Value should be decimal corrected according to the token pair (e.g. price * 10**(quoteDecimals - baseDecimals))
  • minFillSize (optional)
    • bigint
    • The minimum fill size for the order. It should be equal to or less than the amount.
    • If not provided, it defaults to BigInt(0), allowing any fill size.

Return Type

Promise<{ taskId: string }>

Promise that resolves to the ID of the place order task in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the provided base mint does not exist in the token mapping
  • the provided quote mint does not exist in the token mapping
  • the API request authorization is incorrect / missing

cancelOrder​

Action for starting a cancel wallet task on your connected relayer.

Import

import { cancelOrder } from "@renegade-fi/node"

Usage

await cancelOrder(config, {
  id: "f801854d-b225-4855-926b-a24069446dfc",
})

Parameters

  • id
    • string
    • the ID of the order to cancel

Return Type

Promise<{ taskId: string }>

Promise that resolves to the ID of the cancel order task in the connected relayer.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the provided id mint does not exist in the wallet's list of orders
  • the API request authorization is incorrect / missing

getOrderHistory​

Action for fetching the order history of a wallet from your connected relayer.

Import

import { getOrderHistory } from "@renegade-fi/node"

Usage

await getOrderHistory(config, {
    limit: 5
})

Parameters

  • limit (optional)
    • number
    • the number of orders to fetch

Return Type

Promise<Map<string, OrderMetadata>>

Promise that resolves to a Map where the keys are order IDs and the values are OrderMetadata objects.

Error

An error may be thrown if:

  • a seed does not exist in the provided config
  • the API request authorization is incorrect / missing

External (Atomic) Matching​

Renegade supports matching orders between two types of parties:

  • Internal parties who have state committed to the darkpool
  • External parties who have no state in the darkpool

When an external party wants to match with orders in the darkpool, they can request an ExternalMatchBundle from the relayer. This bundle contains everything needed to execute the match on-chain, including:

  • Match details (amounts and tokens involved)
  • A ready-to-submit transaction that settles the match via direct ERC-20 transfers
note

External matches can be partially filled - you may receive a match for less than your requested amount, but it will never be less than your specified minFillSize.

Generating an External Match​

Prerequisites

Before executing an external match:

  1. Ensure you have sufficient token balance to fulfill your side of the trade
  2. Grant the darkpool contract approval to spend the tokens you're selling
  3. Have enough ETH for transaction gas fees

Flow

  1. Request an ExternalMatchQuote with your desired trade parameters using the getExternalMatchQuote action
  2. Review the returned quote and decide whether to proceed with the trade
  3. Assemble the quote into an ExternalMatchBundle using the assembleExternalQuote action
  4. Submit the provided transaction to settle the match on-chain
  5. The protocol will:
    • Update the internal party's state
    • Execute the token transfers between parties

Import

import { getExternalMatchQuote, assembleExternalQuote } from "@renegade-fi/node"

Usage

const config = createAuthConfig({
  authServerUrl: "https://mainnet.auth-server.renegade.fi:3000",
  apiKey: API_KEY,
  apiSecret: API_SECRET,
});

const quote = await getExternalMatchQuote(config, {
  order: {
    base: "0xc3414a7ef14aaaa9c4522dfc00a4e66e74e9c25a", // WETH
    quote: "0xdf8d259c04020562717557f2b5a3cf28e92707d1", // USDC
    side: "buy",
    baseAmount: BigInt(1000000000000000000), // 1 ETH (amount must be adjusted for token decimals - 18 in this case)
    minFillSize: BigInt(100000000000000000) // 0.1 ETH (amount must be adjusted for token decimals - 18 in this case)
  },
});

// ... Quote Validation ... //

const bundle = await assembleExternalQuote(config, {
  quote
});
tip

This action requires an AuthConfig object instead of a Config object. See here for more details

getExternalMatchQuote Parameters

  • order
    • object
    • Contains the following properties:
      • base
        • 0x${string}
        • ERC-20 contract address of the base asset.
      • quote
        • 0x${string}
        • ERC-20 contract address of the quote asset (must be USDC).
      • side
        • "buy" | "sell"
        • The side this order is for
      • baseAmount (required if quoteAmount not provided)
        • bigint
        • Raw amount of base asset to trade (must be adjusted for token decimals, e.g. multiply by 10^18 for ETH)
      • quoteAmount (required if baseAmount not provided)
        • bigint
        • Raw amount of quote asset to trade (must be adjusted for token decimals, e.g. multiply by 10^6 for USDC)
      • minFillSize (optional)
        • bigint
        • Minimum fill size for the order. Must be denominated in the same units as the non-zero amount field:
          • When using baseAmount: specified in base token units
          • When using quoteAmount: specified in quote token units
        • If specified larger than the total order size, will be set to the total order size.
        • If specified as 0, will be set to the total order size.
note

You must provide exactly one of either baseAmount or quoteAmount in your order. Providing both will result in an error.

getExternalMatchQuote Return Type

Promise<SignedExternalMatchQuote>

A SignedExternalMatchQuote that contains:

  • quote: The ExternalMatchQuote object containing:
    • match_result: Details about the match, including the filled amount in raw units (not decimal adjusted)
    • fees: The fees that will be taken by the relayer and protocol (not decimal adjusted)
    • send: The asset and raw amount (not decimal adjusted) you will send in the trade
    • receive: The asset and raw amount (not decimal adjusted) you will receive from the trade, after fees are deducted
    • price: The price at which the quote will be executed
    • timestamp: The timestamp at which the quote was created
  • signature: A signature of the quote by the relayer, to ensure the quote is authentic when assembled

See type ↗

Error

An error may be thrown if:

  • the provided base mint does not exist in the token mapping
  • the provided quote mint does not exist in the token mapping
  • neither baseAmount nor quoteAmount is provided
  • the API request authorization is incorrect / missing

assembleExternalQuote Parameters

  • quote
    • SignedExternalMatchQuote
    • The SignedExternalMatchQuote returned from getExternalMatchQuote
  • updatedOrder (optional)
    • ExternalOrder
    • The updated order to assemble the quote for. If not provided, the quote will use the order specified in the getExternalMatchQuote call. This field allows you to tweak the order before assembling the quote. Note that only the baseAmount, quoteAmount, and minFillSize fields may be updated; any other updates will be rejected.
  • doGasEstimation (optional)
    • boolean
    • Whether to include gas estimation in the returned ExternalMatchBundle

assembleExternalQuote Return Type

Promise<ExternalMatchBundle>

An ExternalMatchBundle that contains:

  • match_result: Details about the match, including the filled amount in raw units (not decimal adjusted)
  • settlement_tx: A transaction that can be submitted on-chain to settle the given external order. Will include a gas estimation if doGasEstimation is true.
  • receive: The asset and raw amount (not decimal adjusted) you will receive from the trade
  • send: The asset and raw amount (not decimal adjusted) you will send in the trade
  • fees: The fees that will be taken by the relayer and protocol (not decimal adjusted)

See type ↗

getExternalMatchBundle Parameters

  • order
    • object
    • Contains the following properties:
      • base
        • 0x${string}
        • ERC-20 contract address of the base asset.
      • quote
        • 0x${string}
        • ERC-20 contract address of the quote asset (must be USDC).
      • side
        • "buy" | "sell"
        • The side this order is for
      • baseAmount (required if quoteAmount not provided)
        • bigint
        • Raw amount of base asset to trade (must be adjusted for token decimals, e.g. multiply by 10^18 for ETH)
      • quoteAmount (required if baseAmount not provided)
        • bigint
        • Raw amount of quote asset to trade (must be adjusted for token decimals, e.g. multiply by 10^6 for USDC)
      • minFillSize (optional)
        • bigint
        • Minimum fill size for the order. Must be denominated in the same units as the non-zero amount field:
          • When using baseAmount: specified in base token units
          • When using quoteAmount: specified in quote token units
        • If specified larger than the total order size, will be set to the total order size.
        • If specified as 0, will be set to the total order size.

getExternalMatchBundle Return Type

Promise<ExternalMatchBundle>

See the assembleExternalQuote section for more details.

See type ↗

note

You are responsible for submitting the transaction request contained within the returned ExternalMatchBundle to an RPC node. See the complete example below for how to execute the entire external matching flow.

Error

An error may be thrown if:

  • the provided base mint does not exist in the token mapping
  • the provided quote mint does not exist in the token mapping
  • neither baseAmount nor quoteAmount is provided
  • the API request authorization is incorrect / missing
  • rate limits have been exceeded, see below

External Match Rate Limits​

The rate limits for the external match endpoints are as follows:

  • Quote: 100 requests per minute
  • Assemble: 5 unsettled bundles per minute. That is, if an assembled bundle is submitted on-chain, the rate limiter will reset. If an assembled match is not settled on-chain, the rate limiter will remove one token from the per-minute allowance.

External Key Management​

Renegade supports external key management as an alternative to the default managed wallet approach. This allows you to maintain complete control over your wallet's cryptographic secrets rather than having them derived and managed by the SDK.

Key Components​

The external key management flow consists of three main components:

  1. Wallet Secrets - A set of cryptographic materials you generate and store:

    • Wallet ID & symmetric key: Used for API authentication
    • Blinder & share seeds: Used for wallet encryption
    • Match key: Used during order matching

  2. ExternalConfig - A configuration object that connects your externally managed keys to the SDK

    • Does not store or derive keys internally
    • Requires you to provide signing capabilities and public keys

  3. Actions - Standard SDK actions that work with your external keys

    • Require wallet secrets for initial wallet creation/lookup
    • Support key rotation for ongoing security

Generating Wallet Secrets​

The generateWalletSecrets function creates the cryptographic materials needed for an externally managed wallet.

Import

import { generateWalletSecrets } from "@renegade-fi/node"

Parameters

  • signer: A function that generates a secp256k1 signature for a given message
    • Input: Unhashed message as hex string
    • Output: Signature as hex string with recovery bit
    • Must NOT prefix with Ethereum signed message header

Example

// Create a signer function that generates a secp256k1 signature for a given message
const signer = async (message: string) => {
  // Hash the raw message (do not add Ethereum message prefix)
  const hashedMessage = keccak256(message);
  
  // Sign the hash with your private key
  const sig = await secp.signAsync(
    hashedMessage.slice(2),
    env.PRIVATE_KEY.slice(2),
    { lowS: true, extraEntropy: false }
  );
  
  // Format signature as r[32] || s[32] || v[1]
  return concatHex([
    numberToHex(sig.r, { size: 32 }),  // r component
    numberToHex(sig.s, { size: 32 }),  // s component
    numberToHex(sig.recovery ? 1 : 0, { size: 1 })  // recovery bit
  ]);
};

const walletSecrets = await generateWalletSecrets(signer);

Return Value

type GeneratedSecrets {
  /** Identifies your wallet to the relayer */
  wallet_id: string

  /** Used to generate blinding values for wallet state encryption */
  blinder_seed: `0x${string}`

  /** Used to generate secret shares for wallet state encryption */
  share_seed: `0x${string}`

  /** Used to authenticate API requests to the relayer */
  symmetric_key: `0x${string}`

  /** Used during order matching process */
  sk_match: `0x${string}`
}
Security Best Practices
  • Store wallet secrets in secure, encrypted storage
  • Never expose secrets in logs or client-side code
  • Back up secrets securely - they cannot be recovered if lost
  • Consider using a hardware security module (HSM) for production deployments
info

Some Ethereum libraries (e.g. viem) automatically prefix messages with "\x19Ethereum Signed Message:\n". This will break signature verification - ensure your signer uses the raw message.

Wallet Creation / Lookup​

Once you have generated wallet secrets, you can use them to create a wallet or lookup an existing wallet. The createWallet and lookupWallet actions require wallet secrets to be provided since they are externally managed. Each of these actions accepts an object containing the blinder seed, share seed, and match key as the second parameter.

const walletSecrets = await generateWalletSecrets(signer);
const parameters: CreateWalletParameters = {
  blinderSeed: walletSecrets.blinder_seed,
  shareSeed: walletSecrets.share_seed,
  skMatch: walletSecrets.sk_match,
};

// Create the wallet using the secrets
await createWallet(config, parameters);
note

Make sure you are using an ExternalConfig object when calling createWallet or lookupWallet with wallet secrets. Otherwise, the SDK will attempt to rederive the wallet secrets from wallet seeds and fail.

Actions​

Once you have created an Externally Managed Wallet, you can use it to interact with the relayer. When using an Externally Managed Wallet, you should instantiate an ExternalConfig object instead of a Config object and pass it as the first parameter actions. Otherwise, usage is the same as described in the actions section above.

Key Rotation​

Key rotation is an optional but recommended security practice that involves updating your wallet's cryptographic keys. While not required, failing to rotate keys may leak some privacy over time as the same key is reused across multiple operations. When using the default internally managed wallet, the SDK automatically rotates keys after each wallet update. For externally managed wallets, you'll need to handle key rotation manually.

Implementation​

Keys can be rotated during any wallet update operation by providing a new public key. Your connected relayer will:

  1. Verify the new public key is valid
  2. Update the wallet's keychain
  3. Use the new key for future operations

Example

// Generate new signing keypair
const newSigningKey = generateNewSigningKey(); // Your key generation logic
const newPublicKey = derivePublicKey(newSigningKey);

// Execute operation with key rotation
const { taskId } = await deposit(config, {
  // Key rotation parameter
  newPublicKey: newPublicKey,
  
  // Normal deposit parameters
  fromAddr: account.address,
  mint: token.address,
  amount: depositAmount,
  permitNonce: nonce,
  permitDeadline: deadline,
  permit: signature,
});

// Update config with new public key
config.setPublicKey(newPublicKey);
info

Key rotation is supported in all wallet update operations including deposits, withdrawals, and order placement.

Examples​

Create a wallet​

Place an order​

Cancel an order​

Deposit​

Withdraw (Coming soon)​

Settle an external order​

Questions?

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Need some Inspiration?

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