Dynamic DAMM-V2 SDK: Function Documentation

Core Functions
State Functions
Helper Functions

Core Functions

createPool

Creates a new standard pool according to a predefined configuration.

Function

async createPool(params: CreatePoolParams): TxBuilder

Parameters

interface CreatePoolParams {
  payer: PublicKey; // The wallet paying for the transaction
  creator: PublicKey; // The creator of the pool
  config: PublicKey; // The configuration account for the pool
  positionNft: PublicKey; // The mint for the initial position NFT
  tokenAMint: PublicKey; // The mint address for token A
  tokenBMint: PublicKey; // The mint address for token B
  activationPoint: BN | null; // The slot or timestamp for activation
  tokenAAmount: BN; // Initial amount of token A to deposit
  tokenBAmount: BN; // Initial amount of token B to deposit
  initSqrtPrice: BN; // Initial sqrt price in Q64 format
  liquidityDelta: BN; // Initial liquidity delta in Q64 format
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  isLockLiquidity?: boolean; // true if you wanna permanent lock position after pool created.
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

// First, prepare the pool creation parameters
const configState = await cpAmm.getConfigState(configAccount);
const initPrice = 10; // 1 base token = 10 quote token
const {actualInputAmount, consumedInputAmount, outputAmount, liquidityDelta} = cpAmm.getDepositQuote({
  inAmount: new BN(5_000_000_000), // 5 tokenA (base token) with 9 decimals
  isTokenA: true;
  minSqrtPrice: configState.sqrtMinPrice,
  maxSqrtPrice: configState.sqrtMinPrice,
  sqrtPrice: getSqrtPriceFromPrice(initPrice, tokenADecimal, tokenBDecimal),
  inputTokenInfo, // provide if input token is token2022
  outputTokenInfo // provide if output token is token2022
})

const createPoolTx = await cpAmm.createPool({
  payer: wallet.publicKey,
  creator: wallet.publicKey,
  config: configAddress,
  positionNft: positionNftMint,
  tokenAMint,
  tokenBMint,
  activationPoint: null,
  tokenAAmount: consumedInputAmount,
  tokenBAmount: outputAmount,
  initSqrtPrice: getSqrtPriceFromPrice(initPrice, tokenADecimal, tokenBDecimal);,
  liquidityDelta: liquidityDelta,
  tokenAProgram,
  tokenBProgram
});

Notes

Both token amounts must be greater than zero
If using native SOL, it will be automatically wrapped to wSOL
The config parameter should be a valid configuration account
Pool creation automatically creates an initial position
Use preparePoolCreationParams to calculate proper initSqrtPrice and liquidityDelta

createCustomPool

Creates a customizable pool with specific fee parameters, reward settings, and activation conditions.

Function

async createCustomPool(params: InitializeCustomizeablePoolParams): Promise<{
  tx: Transaction;
  pool: PublicKey;
  position: PublicKey;
}>

Parameters

interface InitializeCustomizeablePoolParams {
  payer: PublicKey; // The wallet paying for the transaction
  creator: PublicKey; // The creator of the pool
  positionNft: PublicKey; // The mint for the initial position NFT
  tokenAMint: PublicKey; // The mint address for token A
  tokenBMint: PublicKey; // The mint address for token B
  tokenAAmount: BN; // Initial amount of token A to deposit
  tokenBAmount: BN; // Initial amount of token B to deposit
  sqrtMinPrice: BN; // Minimum sqrt price
  sqrtMaxPrice: BN; // Maximum sqrt price
  initSqrtPrice: BN; // Initial sqrt price in Q64 format
  liquidityDelta: BN; // Initial liquidity in Q64 format
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  poolFees: PoolFees; // Fee configuration
  hasAlphaVault: boolean; // Whether the pool has an alpha vault
  collectFeeMode: number; // How fees are collected (0: normal, 1: alpha)
  activationPoint: BN; // The slot or timestamp for activation
  activationType: number; // 0: slot, 1: timestamp
  isLockLiquidity?: boolean; // true if you wanna permanent lock position after pool created.
}

interface PoolFees {
  baseFee: BaseFee; // Base fee configuration (see below for different modes)
  padding: number[];
  dynamicFee?: {
    // Optional dynamic fee configuration
    binStep: number;
    binStepU128: BN;
    filterPeriod: number;
    decayPeriod: number;
    reductionFactor: number;
    variableFeeControl: number;
    maxVolatilityAccumulator: number;
  };
}

// Base Fee Mode Types:
// 0 = Fee Time Scheduler Linear
// 1 = Fee Time Scheduler Exponential
// 2 = Rate Limiter
// 3 = Fee Market Cap Scheduler Linear
// 4 = Fee Market Cap Scheduler Exponential

// For Fee Time Scheduler (baseFeeMode 0 or 1):
interface FeeTimeSchedulerBaseFee {
  cliffFeeNumerator: BN; // Starting fee numerator (e.g., 500000000 = 50%)
  baseFeeMode: number; // 0 = Linear, 1 = Exponential
  numberOfPeriod: number; // Number of fee reduction periods
  periodFrequency: BN; // Time between periods (slots or seconds)
  reductionFactor: BN; // Fee reduction per period
}

// For Rate Limiter (baseFeeMode 2):
interface RateLimiterBaseFee {
  cliffFeeNumerator: BN; // Base fee numerator (e.g., 10000000 = 1%)
  baseFeeMode: number; // 2 = Rate Limiter
  feeIncrementBps: number; // Fee increment in basis points per reference amount
  maxLimiterDuration: number; // Maximum duration for rate limiter
  maxFeeBps: number; // Maximum fee cap in basis points
  referenceAmount: BN; // Reference amount for fee calculation
}

// For Fee Market Cap Scheduler (baseFeeMode 3 or 4):
interface FeeMarketCapSchedulerBaseFee {
  cliffFeeNumerator: BN; // Starting fee numerator (e.g., 500000000 = 50%)
  baseFeeMode: number; // 3 = Linear, 4 = Exponential
  numberOfPeriod: number; // Number of fee reduction periods
  sqrtPriceStepBps: number; // Sqrt price step in bps to advance one period
  schedulerExpirationDuration: number; // Duration after which scheduler expires
  reductionFactor: BN; // Fee reduction per period
}

Returns

An object containing:

tx: The transaction to sign and send
pool: The public key of the created pool
position: The public key of the initial position

Example

// First, prepare the pool creation parameters
const { initSqrtPrice, liquidityDelta } = cpAmm.preparePoolCreationParams({
  tokenAAmount: new BN(5_000_000_000),
  tokenBAmount: new BN(20_000_000),
  minSqrtPrice: MIN_SQRT_PRICE,
  maxSqrtPrice: MAX_SQRT_PRICE,
});

const baseFeeParams = getBaseFeeParams(
  {
    baseFeeMode: BaseFeeMode.FeeTimeSchedulerExponential,
    feeTimeSchedulerParam: {
      startingFeeBps: 5000,
      endingFeeBps: 25,
      numberOfPeriod: 50,
      totalDuration: 300,
    },
  },
  9,
  ActivationType.Timestamp
);
const dynamicFeeParams = getDynamicFeeParams(25); // max dynamic fee is 20% of 0.25%
const poolFees: PoolFeesParams = {
  baseFee: baseFeeParams,
  padding: [],
  dynamicFee: dynamicFeeParams,
};

const { tx, pool, position } = await cpAmm.createCustomPool({
  payer: wallet.publicKey,
  creator: wallet.publicKey,
  positionNft: positionNftMint,
  tokenAMint: usdcMint,
  tokenBMint: btcMint,
  tokenAAmount: new BN(5_000_000_000),
  tokenBAmount: new BN(20_000_000),
  sqrtMinPrice: MIN_SQRT_PRICE,
  sqrtMaxPrice: MAX_SQRT_PRICE,
  initSqrtPrice: initSqrtPrice,
  liquidityDelta: liquidityDelta,
  poolFees,
  hasAlphaVault: false,
  collectFeeMode: 0, // 0: BothToken, 1: onlyB
  activationPoint: new BN(Date.now()),
  activationType: 1, // 0: slot, 1: timestamp
  tokenAProgram,
  tokenBProgram,
});

Notes

Use this function instead of createPool when you need custom fee structures
Use preparePoolCreationParams to calculate proper initSqrtPrice and liquidityDelta

createCustomPoolWithDynamicConfig

Creates a customizable pool with dynamic configuration, allowing for specific fee parameters with specified pool creator authority

Function

async createCustomPoolWithDynamicConfig(params: InitializeCustomizeablePoolWithDynamicConfigParams): Promise<{
  tx: Transaction;
  pool: PublicKey;
  position: PublicKey;
}>

Parameters

interface InitializeCustomizeablePoolWithDynamicConfigParams {
  payer: PublicKey; // The wallet paying for the transaction
  creator: PublicKey; // The creator of the pool
  positionNft: PublicKey; // The mint for the initial position NFT
  tokenAMint: PublicKey; // The mint address for token A
  tokenBMint: PublicKey; // The mint address for token B
  tokenAAmount: BN; // Initial amount of token A to deposit
  tokenBAmount: BN; // Initial amount of token B to deposit
  sqrtMinPrice: BN; // Minimum sqrt price
  sqrtMaxPrice: BN; // Maximum sqrt price
  initSqrtPrice: BN; // Initial sqrt price in Q64 format
  liquidityDelta: BN; // Initial liquidity in Q64 format
  poolFees: PoolFeesParams; // Fee configuration
  hasAlphaVault: boolean; // Whether the pool has an alpha vault
  collectFeeMode: number; // How fees are collected (0: normal, 1: alpha)
  activationPoint: BN | null; // The slot or timestamp for activation (null for immediate)
  activationType: number; // 0: slot, 1: timestamp
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  config: PublicKey; // dynamic config account
  poolCreatorAuthority: PublicKey; // Authority allowed to create pools with this config
  isLockLiquidity?: boolean; // true if you wanna permanent lock position after pool created.
}

Returns

An object containing:

tx: The transaction to sign and send
pool: The public key of the created pool
position: The public key of the initial position

Example

// First, prepare the pool creation parameters
const tokenAAmount = new BN(5_000_000_000);
const tokenBAmount = new BN(20_000_000);
const sqrtPrice = getSqrtPriceFromPrice("172", tokenADecimal, tokenBDecimal);
const sqrtMinPrice = getSqrtPriceFromPrice("4", tokenADecimal, tokenBDecimal);
const sqrtMaxPrice = getSqrtPriceFromPrice("400", tokenADecimal, tokenBDecimal);
const { initSqrtPrice, liquidityDelta } = cpAmm.getLiquidityDelta({
  maxAmountTokenA: tokenAAmount,
  maxAmountTokenB: tokenBAmount,
  sqrtMaxPrice,
  sqrtMinPrice,
  sqrtPrice,
});

const baseFeeParams = getBaseFeeParams(
  {
    baseFeeMode: BaseFeeMode.FeeTimeSchedulerExponential,
    feeTimeSchedulerParam: {
      startingFeeBps: 5000,
      endingFeeBps: 25,
      numberOfPeriod: 50,
      totalDuration: 300,
    },
  },
  9,
  ActivationType.Timestamp
);
const dynamicFeeParams = getDynamicFeeParams(25); // max dynamic fee is 20% of 0.25%
const poolFees: PoolFeesParams = {
  baseFee: baseFeeParams,
  padding: [],
  dynamicFee: dynamicFeeParams,
};

const { tx, pool, position } = await cpAmm.createCustomPoolWithDynamicConfig({
  payer
  creator,
  config: dynamicConfigAddress,
  poolCreatorAuthority: poolCreatorAuth.publicKey,
  positionNft: positionNftMint,
  tokenAMint: usdcMint,
  tokenBMint: btcMint,
  tokenAAmount,
  tokenBAmount,
  sqrtMinPrice,
  sqrtMaxPrice,
  initSqrtPrice,
  liquidityDelta,
  poolFees,
  hasAlphaVault: false,
  collectFeeMode: 0, // 0: Both tokens, 1: Only token B
  activationPoint: null,
  activationType: 1, // 0: slot, 1: timestamp
  tokenAProgram: TOKEN_PROGRAM_ID,
  tokenBProgram: TOKEN_PROGRAM_ID,
});

createPosition

Creates a new position in an existing pool.

Function

async createPosition(params: CreatePositionParams): TxBuilder

Parameters

interface CreatePositionParams {
  owner: PublicKey; // The owner of the position
  payer: PublicKey; // The wallet paying for the transaction
  pool: PublicKey; // The pool to create a position in
  positionNft: PublicKey; // The mint for the position NFT
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const createPositionTx = await cpAmm.createPosition({
  owner: wallet.publicKey,
  payer: wallet.publicKey,
  pool: poolAddress,
  positionNft: positionNftMint,
});

const tx = await createPositionTx.transaction();
const result = await wallet.sendTransaction(tx, connection);

Notes

The positionNft should be a new mint that doesn't already have a position
Creating a position doesn't automatically add liquidity
After creating a position, use addLiquidity to provide tokens

getLiquidityDelta

Calculates the liquidity delta based on the provided token amounts and price ranges.

Function

async getLiquidityDelta(params: LiquidityDeltaParams): Promise<BN>

Parameters

interface LiquidityDeltaParams {
  maxAmountTokenA: BN; // Maximum amount of token A to use
  maxAmountTokenB: BN; // Maximum amount of token B to use
  sqrtMaxPrice: BN; // Maximum sqrt price for the range
  sqrtMinPrice: BN; // Minimum sqrt price for the range
  sqrtPrice: BN; // Current sqrt price
}

Returns

A BN representing the liquidity delta in Q64 format.

getQuote

Calculates the expected output amount for a swap, including fees and slippage protection.

Function

async getQuote(params: GetQuoteParams): Promise<{
  swapInAmount: BN;
  consumedInAmount: BN;
  swapOutAmount: BN;
  minSwapOutAmount: BN;
  totalFee: BN;
  priceImpact: number;
}>

Parameters

interface GetQuoteParams {
  inAmount: BN; // The amount of input token to swap
  inputTokenMint: PublicKey; // The mint of the input token
  slippage: number; // Slippage tolerance in percentage (e.g., 0.5 for 0.5%)
  poolState: PoolState; // The state of the pool
  currentTime: number; // Current timestamp (for time-based fees)
  currentSlot: number; // Current slot (for slot-based fees)
  inputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
  outputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
  tokenADecimal: number; // The decimal of the input token
  tokenBDecimal: number; // The decimal of the output token
  hasReferral?: boolean; // Whether the swap has a referral token account
}

Returns

An object containing:

swapInAmount: The original input amount
consumedInAmount: The actual input amount used (after transfer fees)
swapOutAmount: The expected output amount
minSwapOutAmount: The minimum output amount accounting for slippage
totalFee: The total fee to be paid
priceImpact: The price impact of the swap as a percentage

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const currentSlot = await connection.getSlot();
const blockTime = await connection.getBlockTime(currentSlot);
const quote = await cpAmm.getQuote({
  inAmount: new BN(100_000_000), // 100 USDC
  inputTokenMint: usdcMint,
  slippage: 0.5, // 0.5% slippage
  poolState,
  currentTime: blockTime,
  currentSlot,
  inputTokenInfo: {
    mint: usdcMint,
    currentEpoch: currentEpoch,
  },
  outputTokenInfo: {
    mint: btcMint,
    currentEpoch: currentEpoch,
  },
  tokenADecimal: 6,
  tokenBDecimal: 9,
  hasReferral: false,
});

console.log(`Expected output: ${quote.swapOutAmount.toString()}`);
console.log(`Minimum output: ${quote.minSwapOutAmount.toString()}`);
console.log(`Fee: ${quote.totalFee.toString()}`);
console.log(`Price impact: ${quote.priceImpact.toFixed(2)}%`);

Notes

Always check the price impact before executing a swap
The slippage parameter protects users from price movements
Use the minSwapOutAmount as the minimumAmountOut parameter for swap
For Token2022 tokens with transfer fees, provide the token info parameters

getQuote2

Calculates the expected output amount or input amount for a swap depending on the swap mode. There are 3 swap modes: ExactIn, ExactOut, PartialFill.

Function

async getQuote2(params: GetQuote2Params): Promise<{
  includedFeeInputAmount: BN;
  excludedFeeInputAmount: BN;
  amountLeft: BN;
  outputAmount: BN;
  nextSqrtPrice: BN;
  tradingFee: BN;
  protocolFee: BN;
  partnerFee: BN; // Deprecating soon
  referralFee: BN;
  priceImpact: Decimal;
  minimumAmountOut?: BN;
  maximumAmountIn?: BN;
}>

Parameters

interface GetQuote2Params {
  inputTokenMint: PublicKey; // The mint of the input token
  slippage: number; // Slippage tolerance in percentage (e.g., 0.5 for 0.5%)
  currentPoint: BN; // Current point depending on the activation type
  poolState: PoolState; // The state of the pool
  inputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
  outputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
  tokenADecimal: number; // The decimal of the input token
  tokenBDecimal: number; // The decimal of the output token
  hasReferral: boolean; // Whether the swap has a referral token account
  swapMode: SwapMode; // The swap mode
  amountIn?: BN; // The amount of input token to swap (for ExactIn and PartialFill modes)
  amountOut?: BN; // The amount of output token to swap (for ExactOut mode)
}

Returns

An object containing:

includedFeeInputAmount: The input amount including all applicable fees
excludedFeeInputAmount: The input amount excluding fees
amountLeft: The remaining amount after the swap (if any)
outputAmount: The expected output amount
nextSqrtPrice: The next sqrt price after the swap
tradingFee: The trading fee charged for the swap
protocolFee: The protocol fee charged for the swap
partnerFee: The partner fee charged for the swap (Deprecating soon)
referralFee: The referral fee charged for the swap
priceImpact: The price impact of the swap
minimumAmountOut (optional): The minimum output amount guaranteed (for ExactIn and PartialFill modes)
maximumAmountIn (optional): The maximum input amount allowed (for ExactOut mode)

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const currentPoint = await getCurrentPoint(
  connection,
  poolState.activationType
);
const quote = await cpAmm.getQuote2({
  inputTokenMint: poolState.tokenBMint,
  slippage: 0.5,
  currentPoint,
  poolState,
  tokenADecimal: 6,
  tokenBDecimal: 9,
  hasReferral: false,
  swapMode: SwapMode.PartialFill,
  amountIn: new BN(1_000_000_000),
});

Notes

Always check the price impact before executing a swap
The slippage parameter protects users from price movements
For Token2022 tokens with transfer fees, provide the token info parameters

getDepositQuote

Calculates the deposit quote for adding liquidity to a pool based on a single token input.

Function

async getDepositQuote(params: GetDepositQuoteParams): Promise<DepositQuote>

Parameters

interface GetDepositQuoteParams {
  inAmount: BN; // The amount of input token
  isTokenA: boolean; // Whether the input token is token A
  minSqrtPrice: BN; // Minimum sqrt price
  maxSqrtPrice: BN; // Maximum sqrt price
  sqrtPrice: BN; // Current sqrt price
  inputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
  outputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
}

Returns

An object containing:

actualInputAmount: The actual input amount (after transfer fees)
consumedInputAmount: The full input amount including transfer fees
liquidityDelta: The amount of liquidity that will be added
outputAmount: The calculated amount of the other token to be paired

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);

const depositQuote = await cpAmm.getDepositQuote({
  inAmount: new BN(1_000_000_000), // 1,000 USDC
  isTokenA: true, // USDC is token A
  minSqrtPrice: poolState.sqrtMinPrice,
  maxSqrtPrice: poolState.sqrtMaxPrice,
  sqrtPrice: poolState.sqrtPrice,
});

console.log(`Liquidity delta: ${depositQuote.liquidityDelta.toString()}`);
console.log(`Required token B: ${depositQuote.outputAmount.toString()}`);

Notes

Use this to calculate how much of token B is needed when adding token A (or vice versa)
Particularly useful for single-sided liquidity provision
The function handles Token2022 transfer fees if token info is provided

getWithdrawQuote

Calculates the withdrawal quote for removing liquidity from a pool.

Function

async getWithdrawQuote(params: GetWithdrawQuoteParams): Promise<WithdrawQuote>

Parameters

interface GetWithdrawQuoteParams {
  liquidityDelta: BN; // The amount of liquidity to withdraw
  sqrtPrice: BN; // Current sqrt price
  maxSqrtPrice: BN; // Maximum sqrt price
  minSqrtPrice: BN; // Minimum sqrt price
  inputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
  outputTokenInfo?: {
    mint: Mint;
    currentEpoch: number;
  }; // Token info for Token2022 transfer fee calculations
}

Returns

An object containing:

liquidityDelta: The amount of liquidity being removed
outAmountA: The calculated amount of token A to receive
outAmountB: The calculated amount of token B to receive

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

// Calculate quote for removing half the liquidity
const liquidityToRemove = positionState.liquidity.div(new BN(2));

const withdrawQuote = await cpAmm.getWithdrawQuote({
  liquidityDelta: liquidityToRemove,
  sqrtPrice: poolState.sqrtPrice,
  minSqrtPrice: poolState.sqrtMinPrice,
  maxSqrtPrice: poolState.sqrtMaxPrice,
});

console.log(`Expected token A: ${withdrawQuote.outAmountA.toString()}`);
console.log(`Expected token B: ${withdrawQuote.outAmountB.toString()}`);

Notes

Use this to estimate the tokens you'll receive when removing liquidity
The function handles Token2022 transfer fees if token info is provided
The calculation accounts for the current price relative to the position's price range

swap

Executes a token swap in the pool.

Function

async swap(params: SwapParams): TxBuilder

Parameters

interface SwapParams {
  payer: PublicKey; // The wallet paying for the transaction
  pool: PublicKey; // Address of the pool to swap in
  inputTokenMint: PublicKey; // Mint of the input token
  outputTokenMint: PublicKey; // Mint of the output token
  amountIn: BN; // Amount of input token to swap
  minimumAmountOut: BN; // Minimum amount of output token (slippage protection)
  tokenAVault: PublicKey; // Pool's token A vault
  tokenBVault: PublicKey; // Pool's token B vault
  tokenAMint: PublicKey; // Pool's token A mint
  tokenBMint: PublicKey; // Pool's token B mint
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  receiver?: PublicKey; // Optional receiver of the input and output tokens
  referralTokenAccount?: PublicKey; // Optional referral account for fees
  poolState?: PoolState; // Optional pool state to pass in to atomically fetch the pool state
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const currentSlot = await connection.getSlot();
const blockTime = await connection.getBlockTime(currentSlot);
// Get quote first
const quote = await cpAmm.getQuote({
  inAmount: new BN(100_000_000), // 100 USDC
  inputTokenMint: poolState.tokenAMint,
  slippage: 0.5,
  poolState,
  currentTime: blockTime,
  currentSlot,
});

// Execute swap
const swapTx = await cpAmm.swap({
  payer: wallet.publicKey,
  pool: poolAddress,
  inputTokenMint: poolState.tokenAMint,
  outputTokenMint: poolState.tokenBMint,
  amountIn: new BN(100_000_000),
  minimumAmountOut: quote.minSwapOutAmount,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAProgram: TOKEN_PROGRAM_ID,
  tokenBProgram: TOKEN_PROGRAM_ID,
});

Notes

Get a quote first using getQuote to determine the minimumAmountOut
The SDK handles wrapping/unwrapping of SOL automatically
Token accounts are created automatically if they don't exist
The transaction will fail if the output amount would be less than minimumAmountOut
Optional referral tokenAccount will receive a portion of fees if the pool is configured for referrals

swap2

Executes a token swap in the pool depending on the swap mode. There are 3 swap modes: ExactIn, ExactOut, PartialFill.

Function

async swap2(params: Swap2Params): TxBuilder

Parameters

interface SwapParams {
  payer: PublicKey; // The wallet paying for the transaction
  pool: PublicKey; // Address of the pool to swap in
  inputTokenMint: PublicKey; // Mint of the input token
  outputTokenMint: PublicKey; // Mint of the output token
  tokenAVault: PublicKey; // Pool's token A vault
  tokenBVault: PublicKey; // Pool's token B vault
  tokenAMint: PublicKey; // Pool's token A mint
  tokenBMint: PublicKey; // Pool's token B mint
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  receiver?: PublicKey; // Optional receiver of the input and output tokens
  referralTokenAccount?: PublicKey; // Optional referral account for fees
  poolState?: PoolState; // Optional pool state to pass in to atomically fetch the pool state
  swapMode: SwapMode; // The swap mode
  amountIn?: BN; // The amount of input token to swap (for ExactIn and PartialFill modes)
  amountOut?: BN; // The amount of output token to swap (for ExactOut mode)
  minimumAmountOut?: BN; // Minimum amount of output token (slippage protection) for ExactIn and PartialFill modes
  maximumAmountIn?: BN; // Maximum amount of input token (slippage protection) for ExactOut mode
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const currentPoint = await getCurrentPoint(
  connection,
  poolState.activationType
);
// Get quote first
const quote = await cpAmm.getQuote2({
  inputTokenMint: poolState.tokenBMint,
  slippage: 0.5,
  currentPoint,
  poolState,
  tokenADecimal: 6,
  tokenBDecimal: 9,
  hasReferral: false,
  swapMode: SwapMode.PartialFill,
  amountIn: new BN(1_000_000_000),
});

// Execute swap
const swap2Tx = await cpAmm.swap2({
  payer: wallet.publicKey,
  pool: poolAddress,
  inputTokenMint: poolState.tokenAMint,
  outputTokenMint: poolState.tokenBMint,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAProgram: TOKEN_PROGRAM_ID,
  tokenBProgram: TOKEN_PROGRAM_ID,
  referralTokenAccount: null,
  swapMode: SwapMode.PartialFill,
  amountIn: new BN(1_000_000_000),
  minimumAmountOut: quote.minimumAmountOut,
});

Notes

Get a quote first using getQuote2 to determine the minimumAmountOut or maximumAmountIn depending on the swap mode
The SDK handles wrapping/unwrapping of SOL automatically
Token accounts are created automatically if they don't exist
The transaction will fail if the output amount would be less than minimumAmountOut or the input amount would be greater than maximumAmountIn depending on the swap mode
Optional referral tokenAccount will receive a portion of fees if the pool is configured for referrals

addLiquidity

Adds liquidity to an existing position.

Function

async addLiquidity(params: AddLiquidityParams): TxBuilder

Parameters

interface AddLiquidityParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The ata account of position nft
  liquidityDelta: BN; // The amount of liquidity to add in Q64 format
  maxAmountTokenA: BN; // Maximum amount of token A to use
  maxAmountTokenB: BN; // Maximum amount of token B to use
  tokenAAmountThreshold: BN; // Minimum acceptable token A amount (slippage protection)
  tokenBAmountThreshold: BN; // Minimum acceptable token B amount (slippage protection)
  tokenAMint: PublicKey; // The mint of token A
  tokenBMint: PublicKey; // The mint of token B
  tokenAVault: PublicKey; // The pool's token A vault
  tokenBVault: PublicKey; // The pool's token B vault
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

// Get deposit quote
const depositQuote = await cpAmm.getDepositQuote({
  inAmount: new BN(1_000_000_000), // 1,000 USDC
  isTokenA: true,
  minSqrtPrice: poolState.sqrtMinPrice,
  maxSqrtPrice: poolState.sqrtMaxPrice,
  sqrtPrice: poolState.sqrtPrice,
});

// Add liquidity
const addLiquidityTx = await cpAmm.addLiquidity({
  owner: wallet.publicKey,
  pool: poolAddress,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  liquidityDelta: depositQuote.liquidityDelta,
  maxAmountTokenA: new BN(1_000_000_000),
  maxAmountTokenB: depositQuote.outputAmount,
  tokenAAmountThreshold: maxAmountTokenA,
  tokenBAmountThreshold: maxAmountTokenB,
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAProgram,
  tokenBProgram,
});

Notes

Calculate the liquidity delta first using getDepositQuote
The SDK handles wrapping/unwrapping of SOL automatically
Token accounts are created automatically if they don't exist
Set appropriate thresholds to protect against slippage

removeLiquidity

Removes a specific amount of liquidity from an existing position.

Function

async removeLiquidity(params: RemoveLiquidityParams): TxBuilder

Parameters

interface RemoveLiquidityParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  position: PublicKey; // The position address
  positionNftAccount?: PublicKey; // The position NFT account
  liquidityDelta: BN; // The amount of liquidity to remove in Q64 format
  tokenAAmountThreshold: BN; // Minimum acceptable token A amount (slippage protection)
  tokenBAmountThreshold: BN; // Minimum acceptable token B amount (slippage protection)
  tokenAMint: PublicKey; // The mint of token A
  tokenBMint: PublicKey; // The mint of token B
  tokenAVault: PublicKey; // The pool's token A vault
  tokenBVault: PublicKey; // The pool's token B vault
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  vestings?: Array<{ account: PublicKey }>; // Optional vesting accounts to refresh
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

// Get withdraw quote for half of the liquidity
const liquidityToRemove = positionState.unlockedLiquidity.div(new BN(2));
const withdrawQuote = await cpAmm.getWithdrawQuote({
  liquidityDelta: liquidityToRemove,
  sqrtPrice: poolState.sqrtPrice,
  minSqrtPrice: poolState.sqrtMinPrice,
  maxSqrtPrice: poolState.sqrtMaxPrice,
});

const removeLiquidityTx = await cpAmm.removeLiquidity({
  owner: wallet.publicKey,
  pool: poolAddress,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  liquidityDelta: liquidityToRemove,
  tokenAAmountThreshold: new BN(0),
  tokenBAmountThreshold: new BN(0),
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAProgram,
  tokenBProgram,
});

Notes

You can only remove unlocked liquidity
The SDK handles wrapping/unwrapping of SOL automatically
Token accounts are created automatically if they don't exist
Set appropriate thresholds to protect against slippage
Removing all liquidity doesn't close the position

removeAllLiquidity

Removes all available liquidity from a position.

Function

async removeAllLiquidity(params: RemoveAllLiquidityParams): TxBuilder

Parameters

interface RemoveAllLiquidityParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The ata account of position nft
  tokenAAmountThreshold: BN; // Minimum acceptable token A amount (slippage protection)
  tokenBAmountThreshold: BN; // Minimum acceptable token B amount (slippage protection)
  tokenAMint: PublicKey; // The mint of token A
  tokenBMint: PublicKey; // The mint of token B
  tokenAVault: PublicKey; // The pool's token A vault
  tokenBVault: PublicKey; // The pool's token B vault
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  vestings?: Array<{ account: PublicKey }>; // Optional vesting accounts to refresh if position has vesting lock
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

const removeAllLiquidityTx = await cpAmm.removeAllLiquidity({
  owner: wallet.publicKey,
  pool: poolAddress,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  tokenAAmountThreshold: new BN(0),
  tokenBAmountThreshold: new BN(0),
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAProgram,
  tokenBProgram,
});

Notes

This removes all unlocked liquidity in one transaction
The position remains open after removing all liquidity
You can't remove locked liquidity (use refreshVesting first if needed)
The SDK handles wrapping/unwrapping of SOL automatically

removeAllLiquidityAndClosePosition

Removes all liquidity from a position and closes it in a single transaction.

Function

async removeAllLiquidityAndClosePosition(params: RemoveAllLiquidityAndClosePositionParams): TxBuilder

Parameters

interface RemoveAllLiquidityAndClosePositionParams {
  owner: PublicKey; // The owner of the position
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The position NFT account
  positionState: PositionState; // The current position state
  poolState: PoolState; // The current pool state
  tokenAAmountThreshold: BN; // Minimum acceptable token A amount (slippage protection)
  tokenBAmountThreshold: BN; // Minimum acceptable token B amount (slippage protection)
  currentPoint: BN; // Current timestamp or slot number for vesting calculations
  vestings?: Array<{ account: PublicKey; vestingState: VestingState }>; // Optional vesting accounts
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

// Check if position is locked
if (cpAmm.isLockedPosition(positionState)) {
  console.error("Cannot close a locked position");
  return;
}

// Build transaction to remove all liquidity and close position
const tx = await cpAmm.removeAllLiquidityAndClosePosition({
  owner: wallet.publicKey,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  positionState: positionState,
  poolState: poolState,
  tokenAAmountThreshold: new BN(0),
  tokenBAmountThreshold: new BN(0),
});

Notes

This combines multiple operations in a single transaction:
1. Claims any accumulated fees
2. Removes all liquidity
3. Closes the position and returns the rent
The position must be completely unlocked
The function will throw an error if the position has any locked liquidity
This is more gas-efficient than doing these operations separately
If there are vesting schedules, they must be refreshed before closing the position

mergePosition

Merges liquidity from one position into another in a single transaction.

Function

async mergePosition(params: MergePositionParams): TxBuilder

Parameters

interface MergePositionParams {
  owner: PublicKey; // The owner of both positions
  positionA: PublicKey; // Target position to merge into
  positionB: PublicKey; // Source position to merge from
  positionBState: PositionState; // State of the source position
  poolState: PoolState; // State of the pool
  positionANftAccount: PublicKey; // ata account of target position NFT
  positionBNftAccount: PublicKey; // ata account of source position NFT
  tokenAAmountAddLiquidityThreshold: BN; // Minimum token A amount for add liquidity
  tokenBAmountAddLiquidityThreshold: BN; // Minimum token B amount for add liquidity
  tokenAAmountRemoveLiquidityThreshold: BN; // Minimum token A amount for remove liquidity
  tokenBAmountRemoveLiquidityThreshold: BN; // Minimum token B amount for remove liquidity
  currentPoint: BN; // Current timestamp or slot number for vesting calculations
  positionBVestings?: Array<{ account: PublicKey; vestingState: VestingState }>; // Optional vesting accounts for position B
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionAState = await cpAmm.fetchPositionState(positionAAddress); // Target position
const positionBState = await cpAmm.fetchPositionState(positionBAddress); // Source position to merge from

// Check if position is locked
if (cpAmm.isLockedPosition(positionBState)) {
  console.error("Cannot merge a locked position");
  return;
}

// Build transaction to merge positions
const tx = await cpAmm.mergePosition({
  owner: wallet.publicKey,
  positionA: positionAAddress,
  positionB: positionBAddress,
  positionBState: positionBState,
  poolState: poolState,
  positionANftAccount: positionANftAccount,
  positionBNftAccount: positionBNftAccount,
  tokenAAmountAddLiquidityThreshold: new BN(U64_MAX),
  tokenBAmountAddLiquidityThreshold: new BN(u64_MAX),
  tokenAAmountRemoveLiquidityThreshold: new BN(0),
  tokenBAmountRemoveLiquidityThreshold: new BN(0),
});

Notes

This function combines multiple operations:
1. Claims any accumulated fees from the source position
2. Removes all liquidity from the source position
3. Adds the liquidity to the target position
4. Closes the source position
Both positions must be owned by the same wallet
The source position must be completely unlocked
This is more gas-efficient than performing these operations separately
Set appropriate thresholds to protect against slippage for both add and remove operations

lockPosition

Builds a transaction to lock a position with vesting schedule.

Function

async lockPosition(params: LockPositionParams): TxBuilder

Parameters

interface LockPositionParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  payer: PublicKey; // The wallet paying for the transaction
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The position NFT account
  cliffPoint: BN | null; // The cliff point (slot or timestamp)
  periodFrequency: BN; // How often liquidity unlocks
  cliffUnlockLiquidity: BN; // Amount to unlock at cliff
  liquidityPerPeriod: BN; // Amount to unlock per period
  numberOfPeriod: number; // Number of vesting periods
  vestingAccount?: PublicKey; // The vesting account to create (required for when innerPosition is not provided or false)
  innerPosition?: boolean; // Whether the position is an inner position (required to be true for when vestingAccount is not provided)
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

With vesting account:

const vestingAccount = Keypair.generate();

const lockPositionTx = await cpAmm.lockPosition({
  owner: wallet.publicKey,
  pool: poolAddress,
  payer: wallet.publicKey,
  vestingAccount: vestingAccount.publicKey,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  cliffPoint: new BN(Date.now() + 7 * 24 * 60 * 60 * 1000), // 7 days cliff
  periodFrequency: new BN(24 * 60 * 60 * 1000), // 1 day periods
  cliffUnlockLiquidity: new BN(0), // No initial unlock
  liquidityPerPeriod: positionState.unlockedLiquidity.div(new BN(30)), // Unlock over 30 days
  numberOfPeriod: 30, // 30 periods
});

Without vesting account:

const lockPositionTx = await cpAmm.lockPosition({
  owner: wallet.publicKey,
  pool: poolAddress,
  payer: wallet.publicKey,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  cliffPoint: new BN(Date.now() + 7 * 24 * 60 * 60 * 1000), // 7 days cliff
  periodFrequency: new BN(24 * 60 * 60 * 1000), // 1 day periods
  cliffUnlockLiquidity: new BN(0), // No initial unlock
  liquidityPerPeriod: positionState.unlockedLiquidity.div(new BN(30)), // Unlock over 30 days
  numberOfPeriod: 30, // 30 periods
  innerPosition: true,
});

Notes

Locking positions is useful for creating various incentive mechanisms
The vesting schedule controls how quickly liquidity unlocks over time
Locked liquidity cannot be withdrawn until it becomes unlocked
The vesting account is a new account that must be created
The function only locks currently unlocked liquidity

permanentLockPosition

Permanently locks a portion of liquidity in a position.

Function

async permanentLockPosition(params: PermanentLockParams): TxBuilder

Parameters

interface PermanentLockParams {
  owner: PublicKey; // The owner of the position
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The position NFT account
  pool: PublicKey; // The pool address
  unlockedLiquidity: BN; // Amount of liquidity to permanently lock
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const positionState = await cpAmm.fetchPositionState(positionAddress);

// Permanently lock half of the unlocked liquidity
const liquidityToLock = positionState.unlockedLiquidity.div(new BN(2));

const lockTx = await cpAmm.permanentLockPosition({
  owner: wallet.publicKey,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  pool: poolAddress,
  unlockedLiquidity: liquidityToLock,
});

Notes

Permanently locked liquidity can never be withdrawn
This is useful for deep liquidity protocols or governance mechanisms
Once liquidity is permanently locked, this action cannot be reversed
The owner can still collect fees from permanently locked liquidity

refreshVesting

Refreshes vesting status of a position to unlock available liquidity.

Function

async refreshVesting(params: RefreshVestingParams): TxBuilder

Parameters

interface RefreshVestingParams {
  owner: PublicKey; // The owner of the position
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The position NFT account
  pool: PublicKey; // The pool address
  vestingAccounts: PublicKey[]; // Array of vesting accounts to refresh
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

// Get all vesting accounts for the position
const vestings = await cpAmm.getAllVestingsByPosition(positionAddress);

const refreshVestingTx = await cpAmm.refreshVesting({
  owner: wallet.publicKey,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  pool: poolAddress,
  vestingAccounts: vestings.map((v) => v.publicKey),
});

Notes

Call this function to update the vesting state and unlock available liquidity
Should be called periodically to ensure liquidity is properly unlocked
If all liquidity is unlocked, the vesting account remains but is no longer used
Must be called before removing liquidity if position has vesting accounts

claimPositionFee

Claims accumulated fees for a position.

Function

async claimPositionFee(params: ClaimPositionFeeParams): TxBuilder

Parameters

interface ClaimPositionFeeParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The position NFT account
  tokenAVault: PublicKey; // The pool's token A vault
  tokenBVault: PublicKey; // The pool's token B vault
  tokenAMint: PublicKey; // The mint of token A
  tokenBMint: PublicKey; // The mint of token B
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  receiver?: Pubkey; // the wallet that will receive the fees (optional)
  tempWSolAccount?: Pubkey; // the temporary wallet that will receive the fees (optional)
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);

const claimFeeTx = await cpAmm.claimPositionFee({
  owner: wallet.publicKey,
  pool: poolAddress,
  position: positionAddress,
  positionNftAccount: positionNftAccount,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAProgram,
  tokenBProgram,
});

Notes

Fees are collected when trades occur in the pool
Only the position owner can claim fees
Fees are earned on both token A and token B based on the amount of liquidity provided
Fees accumulate over time and should be claimed periodically
The SDK handles wrapping/unwrapping of SOL automatically

claimPositionFee2

Claims accumulated fees for a position.

Function

async claimPositionFee2(params: ClaimPositionFeeParams2): TxBuilder

Parameters

interface ClaimPositionFeeParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  position: PublicKey; // The position address
  positionNftAccount: PublicKey; // The position NFT account
  tokenAVault: PublicKey; // The pool's token A vault
  tokenBVault: PublicKey; // The pool's token B vault
  tokenAMint: PublicKey; // The mint of token A
  tokenBMint: PublicKey; // The mint of token B
  tokenAProgram: PublicKey; // Token program for token A
  tokenBProgram: PublicKey; // Token program for token B
  receiver: Pubkey; //  The wallet that will receive the fees
  feePayer?: PublicKey; // Specific fee payer for transaction. Default fee payer is position's owner
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);

const claimFeeTx = await cpAmm.claimPositionFee2({
  owner: wallet.publicKey,
  pool: poolAddress,
  position: positionAddress,
  receiver: receiverAddress,
  positionNftAccount: positionNftAccount,
  tokenAVault: poolState.tokenAVault,
  tokenBVault: poolState.tokenBVault,
  tokenAMint: poolState.tokenAMint,
  tokenBMint: poolState.tokenBMint,
  tokenAProgram,
  tokenBProgram,
});

Notes

Fees are collected when trades occur in the pool
Only the position owner can claim fees
Fees will claim to receiver address
Fees are earned on both token A and token B based on the amount of liquidity provided
The SDK handles wrapping/unwrapping of SOL automatically

claimPartnerFee

Claims partner fee rewards. (Deprecating soon)

Function

async claimPartnerFee(params: ClaimPartnerFeeParams): TxBuilder

Parameters

interface ClaimPartnerFeeParams {
  partner: PublicKey; // Partner address to receive fees
  pool: PublicKey; // The pool address
  maxAmountA: BN; // Maximum amount of token A to claim
  maxAmountB: BN; // Maximum amount of token B to claim
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);

const claimPartnerFeeTx = await cpAmm.claimPartnerFee({
  partner: partnerWallet.publicKey,
  pool: poolAddress,
  maxAmountA: new BN(1_000_000_000), // 1,000 USDC
  maxAmountB: new BN(5_000_000_000), // 5 SOL
});

Notes

Partner fees are a portion of trading fees directed to a specific account
Only the configured partner address can claim these fees
Partner fees must be enabled in the pool configuration
The SDK handles wrapping/unwrapping of SOL automatically
Token accounts are created automatically if they don't exist

initializeReward

Initializes a reward for a pool.

Function

async initializeReward(params: InitializeRewardParams): TxBuilder

Parameters

interface InitializeRewardParams {
  rewardIndex: number; // 0: for creators or admins, 1: for admins only
  rewardDuration: BN; // Duration of the reward
  pool: PublicKey; // The pool address
  rewardMint: PublicKey; // The reward mint address
  funder: PublicKey; // The
  payer: PublicKey; // The payer address
  creator: PublicKey; // The creator address
  rewardMintProgram: PublicKey; // The reward mint program address
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const initializeRewardTx = await cpAmm.initializeReward({
  rewardIndex: 0,
  rewardDuration: new BN(1000000000),
  pool: poolAddress,
  rewardMint: rewardMintAddress,
  funder: wallet.publicKey,
  payer: wallet.publicKey,
  creator: wallet.publicKey,
  rewardMintProgram: rewardMintProgramAddress,
});

Notes

Only the pool creator can initialize a reward
The funder is the account that will fund the reward
The payer is the account that will pay for the initialize reward transaction
The creator is the account that is the creator of the pool
The reward mint program is the program that will mint the reward
Pool creators can only initialize rewards for rewardIndex = 0. rewardIndex = 1 is a permissioned reward initialization for admins only.

initializeAndFundReward

Initializes and funds a reward for a pool.

Function

async initializeAndFundReward(params: InitializeAndFundReward): TxBuilder

Parameters

interface InitializeAndFundRewardParams {
  rewardIndex: number; // 0: for creators or admins, 1: for admins only
  rewardDuration: BN; // Duration of the reward
  pool: PublicKey; // The pool address
  creator: PublicKey; // The creator address
  payer: PublicKey; // The payer address
  rewardMint: PublicKey; // The reward mint address
  carryForward: boolean; // Whether to carry forward the reward
  amount: BN; // The amount to fund
  rewardMintProgram: PublicKey; // The reward mint program address
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const initializeAndFundRewardTx = await cpAmm.initializeAndFundReward({
  rewardIndex: 0,
  rewardDuration: new BN(1000000000),
  pool: poolAddress,
  creator: wallet.publicKey,
  payer: wallet.publicKey,
  rewardMint: rewardMintAddress,
  carryForward: true,
  amount: new BN(1000000000),
  rewardMintProgram: rewardMintProgramAddress,
});

Notes

Only the pool creator can initialize a reward
The creator in this case is also the funder of the reward
The payer is the account that will pay for the initialize reward transaction
The reward mint program is the program that will mint the reward
Pool creators can only initialize rewards for rewardIndex = 0. rewardIndex = 1 is a permissioned reward initialization for admins only.
The carryForward parameter specifies whether to carry forward the reward

updateRewardDuration

Updates the duration of a reward.

Function

async updateRewardDuration(params: UpdateRewardDurationParams): TxBuilder

Parameters

interface UpdateRewardDurationParams {
  pool: PublicKey; // The pool address
  signer: PublicKey; // The signer of the transaction
  rewardIndex: number; // Index of the reward to update
  newDuration: BN; // New duration of the reward
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const updateRewardDurationTx = await cpAmm.updateRewardDuration({
  pool: poolAddress,
  signer: wallet.publicKey,
  rewardIndex: 0,
  newDuration: new BN(1000000000),
});

Notes

Only the pool creator or admin can update the duration of a reward
The new duration must be greater than the current duration
The signer must be the pool creator or admin depending on the rewardIndex

updateRewardFunder

Updates the funder of a reward.

Function

async updateRewardFunder(params: UpdateRewardFunderParams): TxBuilder

Parameters

interface UpdateRewardFunderParams {
  pool: PublicKey; // The pool address
  signer: PublicKey; // The signer of the transaction
  rewardIndex: number; // Index of the reward to update
  newFunder: PublicKey; // The new funder of the reward
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const updateRewardFunderTx = await cpAmm.updateRewardFunder({
  pool: poolAddress,
  signer: wallet.publicKey,
  rewardIndex: 0,
  newFunder: newFunderAddress,
});

Notes

Only the pool creator can update the funder of a reward
The new funder must be a valid public key
The signer must be the pool creator or admin depending on the rewardIndex

fundReward

Funds a reward for a pool.

Function

async fundReward(params: FundRewardParams): TxBuilder

Parameters

interface FundRewardParams {
  funder: PublicKey; // The funder address
  rewardIndex: number; // Index of the reward to fund
  pool: PublicKey; // The pool address
  carryForward: boolean; // Whether to carry forward the reward
  amount: BN; // The amount to fund
  rewardMint: PublicKey; // The reward token mint address
  rewardVault: PublicKey; // The reward vault address
  rewardMintProgram: PublicKey; // The reward mint's program id
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const fundRewardTx = await cpAmm.fundReward({
  funder: wallet.publicKey,
  rewardIndex: 0,
  pool: poolAddress,
  carryForward: true,
  amount: new BN(1000000000),
  rewardMint: rewardMintAddress,
  rewardVault: rewardVaultAddress,
  rewardMintProgram: rewardMintProgramAddress,
});

Notes

Only the pool creator can fund rewards
The rewardIndex parameter specifies which reward token to fund
The carryForward parameter specifies whether to carry forward the reward
The amount parameter specifies the amount to fund

claimReward

Claims reward tokens from a position.

Function

async claimReward(params: ClaimRewardParams): TxBuilder

Parameters

interface ClaimRewardParams {
  user: PublicKey; // The user claiming rewards
  position: PublicKey; // The position address
  poolState: PoolState; // The current pool state
  positionState: PositionState; // The current position state
  positionNftAccount: PublicKey; // The position NFT account
  rewardIndex: number; // Index of the reward to claim
  isSkipReward: boolean; // Whether to skip reward transfer
  feePayer?: PublicKey; // Specific fee payer for transaction. Default fee payer is user
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

// Claim reward at index 0
const claimRewardTx = await cpAmm.claimReward({
  user: wallet.publicKey,
  position: positionAddress,
  poolState: poolState,
  positionState: positionState,
  positionNftAccount: positionNftAccount,
  rewardIndex: 0,
  isSkipReward: false,
  feePayer: wallet.publicKey,
});

Notes

Pools can have multiple reward tokens configured
The rewardIndex parameter specifies which reward token to claim
Rewards accrue based on the amount of liquidity provided and duration
Only the position owner can claim rewards
The SDK handles wrapping/unwrapping of SOL automatically

withdrawIneligibleReward

Withdraws ineligible reward tokens from a pool.

Function

async withdrawIneligibleReward(params: WithdrawIneligibleRewardParams): TxBuilder

Parameters

interface WithdrawIneligibleRewardParams {
  rewardIndex: number; // Index of the reward to withdraw
  pool: PublicKey; // The pool address
  funder: PublicKey; // The funder address to withdraw to
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const withdrawIneligibleRewardTx = await cpAmm.withdrawIneligibleReward({
  rewardIndex: 0,
  pool: poolAddress,
  funder: wallet.publicKey,
});

Notes

Only the pool creator can withdraw ineligible rewards
The rewardIndex parameter specifies which reward token to withdraw
The funder parameter specifies the address to withdraw to

closePosition

Closes a position with no liquidity.

Function

async closePosition(params: ClosePositionParams): TxBuilder

Parameters

interface ClosePositionParams {
  owner: PublicKey; // The owner of the position
  pool: PublicKey; // The pool address
  position: PublicKey; // The position address
  positionNftMint: PublicKey; // The position NFT mint
  positionNftAccount: PublicKey; // The position NFT account
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const positionState = await cpAmm.fetchPositionState(positionAddress);

// Check if position has no liquidity
if (
  !positionState.unlockedLiquidity.isZero() ||
  !positionState.vestedLiquidity.isZero() ||
  !positionState.permanentLockedLiquidity.isZero()
) {
  console.error("Position still has liquidity");
  return;
}

const closePositionTx = await cpAmm.closePosition({
  owner: wallet.publicKey,
  pool: positionState.pool,
  position: positionAddress,
  positionNftMint: positionState.nftMint,
  positionNftAccount: positionNftAccount,
});

Notes

Position must have zero liquidity before closing
Use removeAllLiquidity first if the position still has liquidity
Closing a position returns the rent to the owner
This function only closes the position account, not the NFT
For a full cleanup, use removeAllLiquidityAndClosePosition instead

splitPosition

Splits a position into two positions.

Function

async splitPosition(params: SplitPositionParams): TxBuilder

Parameters

interface SplitPositionParams {
  firstPositionOwner: PublicKey; // The owner of the first position
  secondPositionOwner: PublicKey; // The owner of the second position
  pool: PublicKey; // The pool address
  firstPosition: PublicKey; // The first position address
  firstPositionNftAccount: PublicKey; // The first position NFT account
  secondPosition: PublicKey; // The second position address
  secondPositionNftAccount: PublicKey; // The second position NFT account
  unlockedLiquidityPercentage: number; // The percentage of unlocked liquidity to split
  permanentLockedLiquidityPercentage: number; // The percentage of permanent locked liquidity to split
  feeAPercentage: number; // The percentage of fee A to split
  feeBPercentage: number; // The percentage of fee B to split
  reward0Percentage: number; // The percentage of reward 0 to split
  reward1Percentage: number; // The percentage of reward 1 to split
  innerVestingLiquidityPercentage: number; // The percentage of inner vesting liquidity to split
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const firstPosition = await client.getUserPositionByPool(
  poolAddress,
  firstUser.publicKey
);

const secondPositionKP = Keypair.generate();

const createSecondPositionTx = await client.createPosition({
  owner: secondUser.publicKey,
  payer: secondUser.publicKey,
  pool: poolAddress,
  positionNft: secondPositionKP.publicKey,
});

const createSignature = await sendAndConfirmTransaction(
  connection,
  createSecondPositionTx,
  [secondUser, secondPositionKP],
  {
    commitment: "confirmed",
    skipPreflight: true,
  }
);
console.log("Second position created:", createSignature);

const secondPosition = await client.getUserPositionByPool(
  poolAddress,
  secondUser.publicKey
);

const splitPositionTx = await client.splitPosition({
  firstPositionOwner: firstUser.publicKey,
  secondPositionOwner: secondUser.publicKey,
  pool: poolAddress,
  firstPosition: firstPosition[0].position,
  firstPositionNftAccount: firstPosition[0].positionNftAccount,
  secondPosition: secondPosition[0].position,
  secondPositionNftAccount: secondPosition[0].positionNftAccount,
  unlockedLiquidityPercentage: 50,
  permanentLockedLiquidityPercentage: 0,
  feeAPercentage: 50,
  feeBPercentage: 50,
  reward0Percentage: 50,
  reward1Percentage: 50,
  innerVestingLiquidityPercentage: 50,
});

Notes

The first position must already exist for that pool
The second position can be a new empty position for that same pool

splitPosition2

Splits a position into two positions via numerator.

Function

async splitPosition2(params: SplitPosition2Params): TxBuilder

Parameters

interface SplitPosition2Params {
  firstPositionOwner: PublicKey; // The owner of the first position
  secondPositionOwner: PublicKey; // The owner of the second position
  pool: PublicKey; // The pool address
  firstPosition: PublicKey; // The first position address
  firstPositionNftAccount: PublicKey; // The first position NFT account
  secondPosition: PublicKey; // The second position address
  secondPositionNftAccount: PublicKey; // The second position NFT account
  numerator: number; // The numerator to split the position by, which is a percentage of the position
}

Returns

A transaction builder (TxBuilder) that can be used to build, sign, and send the transaction.

Example

const firstPosition = await client.getUserPositionByPool(
  poolAddress,
  firstUser.publicKey
);

const secondPositionKP = Keypair.generate();

const createSecondPositionTx = await client.createPosition({
  owner: secondUser.publicKey,
  payer: secondUser.publicKey,
  pool: poolAddress,
  positionNft: secondPositionKP.publicKey,
});

const createSignature = await sendAndConfirmTransaction(
  connection,
  createSecondPositionTx,
  [secondUser, secondPositionKP],
  {
    commitment: "confirmed",
    skipPreflight: true,
  }
);
console.log("Second position created:", createSignature);

const secondPosition = await client.getUserPositionByPool(
  poolAddress,
  secondUser.publicKey
);

const splitPosition2Tx = await client.splitPosition2({
  firstPositionOwner: firstUser.publicKey,
  secondPositionOwner: secondUser.publicKey,
  pool: poolAddress,
  firstPosition: firstPosition[0].position,
  firstPositionNftAccount: firstPosition[0].positionNftAccount,
  secondPosition: secondPosition[0].position,
  secondPositionNftAccount: secondPosition[0].positionNftAccount,
  numerator: SPLIT_POSITION_DENOMINATOR / 2,
});

Notes

The first position must already exist for that pool
The second position can be a new empty position for that same pool

State Functions

fetchConfigState

Fetches the Config state of the program.

Function

async fetchConfigState(config: PublicKey): Promise<ConfigState>

Parameters

config: Public key of the config account.

Returns

Parsed ConfigState.

Example

const configState = await cpAmm.fetchConfigState(configAddress);
console.log(configState);

Notes

Throws an error if the config account does not exist

fetchPoolState

Fetches the Pool state.

Function

async fetchPoolState(pool: PublicKey): Promise<PoolState>

Parameters

pool: Public key of the pool.

Returns

Parsed PoolState.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
console.log(`Current Price: ${poolState.sqrtPrice.toString()}`);
console.log(`Liquidity: ${poolState.liquidity.toString()}`);

Notes

Throws an error if the pool account does not exist
Contains all essential information about the pool including prices, liquidity, and fees

fetchPoolStatesByTokenAMint

Fetches all Pool states by tokenAMint.

Function

async fetchPoolStatesByTokenAMint(tokenAMint: PublicKey): Promise<Array<{ publicKey: PublicKey; account: PoolState }>>

Parameters

tokenAMint: Public key of the tokenA mint.

Returns

Array of matched pool accounts and their state.

Example

const poolStates = await cpAmm.fetchPoolStatesByTokenAMint(tokenAMint);
console.log(`Found ${poolStates.length} pools`);
poolStates.forEach((pool, i) => {
  console.log(`Pool ${i}: ${pool.publicKey.toString()}`);
  console.log(`- Pool State: ${JSON.stringify(pool.account)}`);
});

Notes

Returns an empty array if no pools are found for the given tokenAMint
Contains all essential information about the pool including pool address, prices, liquidity, and fees

fetchPositionState

Fetches the Position state.

Function

async fetchPositionState(position: PublicKey): Promise<PositionState>

Parameters

position: Public key of the position.

Returns

Parsed PositionState.

Example

const positionState = await cpAmm.fetchPositionState(positionAddress);
console.log(
  `Unlocked Liquidity: ${positionState.unlockedLiquidity.toString()}`
);
console.log(`Vested Liquidity: ${positionState.vestedLiquidity.toString()}`);
console.log(
  `Permanent Locked Liquidity: ${positionState.permanentLockedLiquidity.toString()}`
);

Notes

Throws an error if the position account does not exist
Contains information about liquidity amounts, fee collection, and rewards

getAllConfigs

Retrieves all config accounts.

Function

async getAllConfigs(): Promise<Array<{ publicKey: PublicKey; account: ConfigState }>>

Returns

Array of config public keys and their states.

Example

const configs = await cpAmm.getAllConfigs();
console.log(`Found ${configs.length} configs`);
configs.forEach((config, i) => {
  console.log(`Config ${i}: ${config.publicKey.toString()}`);
});

getAllPools

Retrieves all pool accounts.

Function

async getAllPools(): Promise<Array<{ publicKey: PublicKey; account: PoolState }>>

Returns

Array of pool public keys and their states.

Example

const pools = await cpAmm.getAllPools();
console.log(`Found ${pools.length} pools`);
pools.forEach((pool, i) => {
  console.log(`Pool ${i}: ${pool.publicKey.toString()}`);
  console.log(`- Token A: ${pool.account.tokenAMint.toString()}`);
  console.log(`- Token B: ${pool.account.tokenBMint.toString()}`);
});

getAllPositions

Retrieves all position accounts.

Function

async getAllPositions(): Promise<Array<{ publicKey: PublicKey; account: PositionState }>>

Returns

Array of position public keys and their states.

Example

const positions = await cpAmm.getAllPositions();
console.log(`Found ${positions.length} positions`);

getAllPositionsByPool

Gets all positions for a specific pool.

Function

async getAllPositionsByPool(pool: PublicKey): Promise<Array<{ publicKey: PublicKey; account: PositionState }>>

Parameters

pool: Public key of the pool.

Returns

List of positions for the pool.

Example

const poolPositions = await cpAmm.getAllPositionsByPool(poolAddress);
console.log(`Pool has ${poolPositions.length} positions`);

getUserPositionByPool

Gets all positions of a user for a specific pool.

Function

async getUserPositionByPool(pool: PublicKey, user: PublicKey): Promise<Array<{ positionNftAccount: PublicKey; position: PublicKey; positionState: PositionState }>>

Parameters

pool: Public key of the pool.
user: Public key of the user.

Returns

List of user positions for the pool.

Example

const userPoolPositions = await cpAmm.getUserPositionByPool(
  poolAddress,
  wallet.publicKey
);
console.log(`User has ${userPoolPositions.length} positions in this pool`);

getPositionsByUser

Gets all positions of a user across all pools.

Function

async getPositionsByUser(user: PublicKey): Promise<Array<{ positionNftAccount: PublicKey; position: PublicKey; positionState: PositionState }>>

Parameters

user: Public key of the user.

Returns

Array of user positions already sorted by liquidity.

Example

const userPositions = await cpAmm.getPositionsByUser(wallet.publicKey);
console.log(`User has ${userPositions.length} total positions`);

Notes

Positions are sorted by total liquidity in descending order
Returns position NFT accounts, position addresses, and full position states

getAllVestingsByPosition

Retrieves all vesting accounts associated with a position.

Function

async getAllVestingsByPosition(position: PublicKey): Promise<Array<{ publicKey: PublicKey; account: VestingState }>>

Parameters

position: Public key of the position.

Returns

Array of vesting account public keys and their states.

Example

const vestings = await cpAmm.getAllVestingsByPosition(positionAddress);
console.log(`Position has ${vestings.length} vesting accounts`);

isLockedPosition

Checks if a position has any locked liquidity.

Function

isLockedPosition(position: PositionState): boolean

Parameters

position: The position state.

Returns

Boolean indicating whether the position has locked liquidity.

Example

const positionState = await cpAmm.fetchPositionState(positionAddress);
if (cpAmm.isLockedPosition(positionState)) {
  console.log("Position has locked liquidity");
} else {
  console.log("Position has no locked liquidity");
}

isPoolExist

Checks if a pool exists.

Function

async isPoolExist(pool: PublicKey): Promise<boolean>

Parameters

pool: Public key of the pool.

Returns

Boolean indicating whether the pool exists.

Example

const exists = await cpAmm.isPoolExist(poolAddress);
if (exists) {
  console.log("Pool exists");
} else {
  console.log("Pool does not exist");
}

Helper Functions

preparePoolCreationParams

Prepares parameters required for pool creation, including initial sqrt price and liquidity.

Function

preparePoolCreationParams(params: PreparePoolCreationParams): PreparedPoolCreation

Parameters

interface PreparePoolCreationParams {
  tokenAAmount: BN; // Initial amount of token A to deposit
  tokenBAmount: BN; // Initial amount of token B to deposit
  minSqrtPrice: BN; // Minimum sqrt price
  maxSqrtPrice: BN; // Maximum sqrt price
  tokenAInfo?: any; // Token info for Token2022 transfer fee calculations
  tokenBInfo?: any; // Token info for Token2022 transfer fee calculations
}

Returns

An object containing:

initSqrtPrice: The initial sqrt price in Q64 format
liquidityDelta: The initial liquidity in Q64 format

Example

const { initSqrtPrice, liquidityDelta } = cpAmm.preparePoolCreationParams({
  tokenAAmount: new BN(1_000_000_000), // 1,000 USDC with 6 decimals
  tokenBAmount: new BN(5_000_000_000), // 5 SOL with 9 decimals
  minSqrtPrice: MIN_SQRT_PRICE,
  maxSqrtPrice: MAX_SQRT_PRICE,
});

console.log(`Initial sqrt price: ${initSqrtPrice.toString()}`);
console.log(`Initial liquidity: ${liquidityDelta.toString()}`);

Notes

This function calculates the correct initial price and liquidity based on the token amounts
Both token amounts must be greater than zero
The function handles Token2022 transfer fees if token info is provided

isVestingComplete

Checks if a vesting schedule is ready for full release.

Function

function isVestingComplete(
  vestingData: VestingState,
  currentPoint: BN
): boolean;

Parameters

vestingData: The vesting account state data
currentPoint: Current timestamp or slot number

Returns

Boolean indicating whether the vesting schedule is complete and all liquidity can be released.

Example

const vestings = await cpAmm.getAllVestingsByPosition(positionAddress);
if (vestings.length > 0) {
  const isComplete = isVestingComplete(vestings[0].account, new BN(Date.now()));
  if (isComplete) {
    console.log("Vesting schedule is complete, all liquidity can be released");
  } else {
    console.log("Vesting schedule is still active");
  }
}

Notes

This function checks if the current point (timestamp or slot) has passed the end of the vesting schedule
The end point is calculated as: cliffPoint + (periodFrequency * numberOfPeriods)
Returns true if currentPoint >= endPoint, false otherwise
Useful to determine if a position can be fully unlocked

getTotalLockedLiquidity

Gets the total amount of liquidity in the vesting schedule.

Function

function getTotalLockedLiquidity(vestingData: VestingState): BN;

Parameters

vestingData: The vesting account state data

Returns

The total locked liquidity amount as a BN.

Example

const vestings = await cpAmm.getAllVestingsByPosition(positionAddress);
if (vestings.length > 0) {
  const totalLocked = getTotalLockedLiquidity(vestings[0].account);
  console.log(`Total locked liquidity: ${totalLocked.toString()}`);
}

Notes

Calculates the sum of cliff unlock liquidity and periodic unlock liquidity
Formula: cliffUnlockLiquidity + (liquidityPerPeriod * numberOfPeriod)
This is the total amount of liquidity that was initially locked in the vesting schedule
Does not account for already released liquidity

getAvailableVestingLiquidity

Calculates the available liquidity to withdraw based on vesting schedule.

Function

function getAvailableVestingLiquidity(
  vestingData: VestingState,
  currentPoint: BN
): BN;

Parameters

vestingData: The vesting account state data
currentPoint: Current timestamp or slot number

Returns

The amount of liquidity available to withdraw as a BN.

Example

const vestings = await cpAmm.getAllVestingsByPosition(positionAddress);
if (vestings.length > 0) {
  const availableLiquidity = getAvailableVestingLiquidity(
    vestings[0].account,
    new BN(Date.now())
  );
  console.log(
    `Available liquidity to withdraw: ${availableLiquidity.toString()}`
  );
}

getMaxAmountWithSlippage

Calculates the maximum amount after applying a slippage rate.

Function

function getMaxAmountWithSlippage(amount: BN, rate: number): BN;

Parameters

amount: The base amount as a BN
rate: The slippage rate as a percentage (e.g., 0.5 for 0.5%)

Returns

The maximum amount after applying slippage as a BN.

Example

const tokenAmount = new BN(1_000_000_000); // 1,000 tokens
const slippageRate = 0.5; // 0.5% slippage allowance
const maxAmount = getMaxAmountWithSlippage(tokenAmount, slippageRate);
console.log(`Maximum amount with slippage: ${maxAmount.toString()}`);

Notes

Used when you need to calculate the upper bound of an amount with slippage tolerance
Formula: amount * (100 + rate) / 100
Common use case: Setting a maximum deposit amount when adding liquidity
Slippage rate is expressed as a percentage and supports up to 2 decimal places

getAmountWithSlippage

Calculates the minimum amount after applying a slippage rate.

Function

function getAmountWithSlippage(
  amount: BN,
  slippageBps: number,
  swapMode: SwapMode
): BN;

Parameters

amount: The base amount as a BN
slippageBps: The slippage rate in basis points (e.g., 100 bps for 1%)
swapMode: The swap mode (ExactIn, PartialFill, ExactOut)

Returns

The minimum amount after applying slippage as a BN (for ExactIn/PartialFill) or maximum amount in (for ExactOut).

Example

const expectedOutput = new BN(1_000_000_000); // 1,000 tokens
const slippageBps = 50; // 0.5% slippage allowance
const amountWithSlippage = getAmountWithSlippage(
  expectedOutput,
  slippageBps,
  SwapMode.ExactIn
);
console.log(`Amount with slippage: ${amountWithSlippage.toString()}`);

Notes

Used when you need to calculate the lower bound of an amount with slippage tolerance
Formula: amount * (100 - slippageBps) / 100 (for ExactIn/PartialFill) or amount * (100 + slippageBps) / 100 (for ExactOut)
Common use case: Setting a minimum output amount when swapping tokens
Slippage rate is expressed as a percentage and supports up to 2 decimal places

getPriceImpact

Calculates the price impact as a percentage.

Function

function getPriceImpact(actualAmount: BN, idealAmount: BN): number;

Parameters

actualAmount: The actual amount after slippage in token units
idealAmount: The theoretical amount without slippage in token units

Returns

The price impact as a percentage (e.g., 1.5 means 1.5%).

Example

const idealAmount = new BN(1_000_000_000); // 1,000 tokens (theoretical)
const actualAmount = new BN(990_000_000); // 990 tokens (actual)
const impact = getPriceImpact(actualAmount, idealAmount);
console.log(`Price impact: ${impact.toFixed(2)}%`);

Notes

Used to express how much a transaction will affect the price
Formula: ((idealAmount - actualAmount) / idealAmount) * 100
Higher price impact indicates a greater effect on the market price
Common use case: Showing users the effect of their swap on the pool

Price Conversion Utilities

getPriceFromSqrtPrice

Converts a sqrt price in Q64 format to a human-readable price.

Function

function getPriceFromSqrtPrice(
  sqrtPrice: BN,
  tokenADecimal: number,
  tokenBDecimal: number
): string;

Parameters

sqrtPrice: The sqrt price in Q64 format
tokenADecimal: The number of decimals for token A
tokenBDecimal: The number of decimals for token B

Returns

The price as a string in human-readable format.

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const price = getPriceFromSqrtPrice(
  poolState.sqrtPrice,
  6, // USDC has 6 decimals
  9 // SOL has 9 decimals
);
console.log(`Current price: ${price} USDC per SOL`);

Notes

Converts the internal sqrt price representation to a human-readable price
Formula: (sqrtPrice >> 64)^2 * 10^(tokenADecimal - tokenBDecimal)
The result represents the price of token B in terms of token A
Useful for displaying current pool prices to users

getSqrtPriceFromPrice

Converts a human-readable price to a sqrt price in Q64 format.

Function

function getSqrtPriceFromPrice(
  price: string,
  tokenADecimal: number,
  tokenBDecimal: number
): BN;

Parameters

price: The price as a string in human-readable format
tokenADecimal: The number of decimals for token A
tokenBDecimal: The number of decimals for token B

Returns

The sqrt price as a BN in Q64 format.

Example

const price = "0.05"; // 0.05 USDC per SOL
const sqrtPrice = getSqrtPriceFromPrice(
  price,
  6, // USDC has 6 decimals
  9 // SOL has 9 decimals
);
console.log(`Sqrt price in Q64 format: ${sqrtPrice.toString()}`);

Notes

Converts a human-readable price to the internal sqrt price representation
Formula: sqrt(price / 10^(tokenADecimal - tokenBDecimal)) << 64
Useful when creating pools with a specific initial price
Can be used to define price boundaries for concentrated liquidity positions

Fee Calculation Utilities

getUnClaimLpFee

Calculates unclaimed fees and rewards for a position.

Function

function getUnClaimLpFee(
  poolState: PoolState,
  positionState: PositionState
): {
  feeTokenA: BN;
  feeTokenB: BN;
  rewards: BN[];
};

Parameters

poolState: The current state of the pool
positionState: The current state of the position

Returns

An object containing:

feeTokenA: Unclaimed fees in token A
feeTokenB: Unclaimed fees in token B
rewards: Array of unclaimed reward amounts for each reward token

Example

const poolState = await cpAmm.fetchPoolState(poolAddress);
const positionState = await cpAmm.fetchPositionState(positionAddress);

const unclaimed = getUnClaimLpFee(poolState, positionState);
console.log(`Unclaimed token A fees: ${unclaimed.feeTokenA.toString()}`);
console.log(`Unclaimed token B fees: ${unclaimed.feeTokenB.toString()}`);
unclaimed.rewards.forEach((reward, i) => {
  console.log(`Unclaimed reward ${i}: ${reward.toString()}`);
});

getBaseFeeNumerator

Calculates the current base fee numerator based on the configured fee scheduler mode and elapsed periods.

Function

function getBaseFeeNumerator(
  cliffFeeNumerator: BN,
  numberOfPeriod: number,
  periodFrequency: BN,
  reductionFactor: BN,
  baseFeeMode: BaseFeeMode,
  currentPoint: BN,
  activationPoint: BN
): BN;

Parameters

baseFeeMode: The fee reduction mode (Fee Scheduler Linear or Exponential)
cliffFeeNumerator: The initial maximum fee numerator (starting point)
period: The number of elapsed periods since fee reduction began
reductionFactor: The rate of fee reduction per period

Mathematical Formula

Linear Mode:

fee = cliffFeeNumerator - (period × reductionFactor)

Exponential Mode:

fee = cliffFeeNumerator × (1 - reductionFactor/BASIS_POINT_MAX)^period

Returns

BN: The calculated base fee numerator for the current period

getDynamicFeeNumerator

Calculates a dynamic fee component based on market volatility

Function

function getDynamicFeeNumerator(
  volatilityAccumulator: BN,
  binStep: BN,
  variableFeeControl: BN
): BN;

Parameters

volatilityAccumulator: Accumulated measure of market volatility over time
binStep: The price bin step size used in the liquidity distribution system
variableFeeControl: Control parameter that determines how much volatility affects fees

Mathematical Formula

squareVfaBin = (volatilityAccumulator × binStep)²
vFee = variableFeeControl × squareVfaBin
dynamicFee = (vFee + 99,999,999,999) ÷ 100,000,000,000

Returns

BN: The calculated dynamic fee numerator
Returns 0 if variableFeeControl is zero (dynamic fees disabled)

bpsToFeeNumerator

Converts basis points to fee numerator format.

Mathematical Formula

feeNumerator = (bps × FEE_DENOMINATOR) ÷ BASIS_POINT_MAX

feeNumeratorToBps

Converts fee numerator back to basis points.

Mathematical Formula

bps = (feeNumerator × BASIS_POINT_MAX) ÷ FEE_DENOMINATOR

getBaseFeeParams

Get and prepares the base fee parameters of the pool.

Function

getBaseFeeParams(
  baseFeeParams: {
    baseFeeMode: BaseFeeMode;
    rateLimiterParam?: {
      baseFeeBps: number;
      feeIncrementBps: number;
      referenceAmount: number;
      maxLimiterDuration: number;
      maxFeeBps: number;
    };
    feeTimeSchedulerParam?: {
      startingFeeBps: number;
      endingFeeBps: number;
      numberOfPeriod: number;
      totalDuration: number;
    };
    feeMarketCapSchedulerParam?: {
      startingFeeBps: number;
      endingFeeBps: number;
      numberOfPeriod: number;
      sqrtPriceStepBps: number;
      schedulerExpirationDuration: number;
    };
  },
  tokenBDecimal: number,
  activationType: ActivationType): BaseFee

Parameters

connection: Connection, // rpc connection
baseFeeParams: {
  baseFeeMode: BaseFeeMode; // base fee mode
  rateLimiterParam?: { // if you choose BaseFeeMode.RateLimiter mode
    baseFeeBps: number; // base fee in basis points
    feeIncrementBps: number; // fee increment in basis points
    referenceAmount: number; // reference amount (in terms of quote token)
    maxLimiterDuration: number; // max limiter duration in seconds
    maxFeeBps: number; // max fee in basis points
  };
  feeTimeSchedulerParam?: { // if you choose BaseFeeMode.FeeTimeSchedulerLinear or BaseFeeMode.FeeTimeSchedulerExponential mode
    startingFeeBps: number; // starting fee in basis points
    endingFeeBps: number; // ending fee in basis points
    numberOfPeriod: number; // number of periods
    totalDuration: number; // total duration in seconds
  };
  feeMarketCapSchedulerParam?: { // if you choose BaseFeeMode.FeeMarketCapSchedulerLinear or BaseFeeMode.FeeMarketCapSchedulerExponential mode
    startingFeeBps: number; // starting fee in basis points
    endingFeeBps: number; // ending fee in basis points
    numberOfPeriod: number; // number of periods
    sqrtPriceStepBps: number; // sqrt price step in basis points
    schedulerExpirationDuration: number; // scheduler expiration duration in seconds
  };
},
tokenBDecimal: number, // token B decimal
activationType: ActivationType // activation type

Returns

The base fee parameters in encoded Borsh format. (data: number[])

Example

const baseFee = getBaseFeeParams(
  {
    baseFeeMode: BaseFeeMode.FeeMarketCapSchedulerLinear,
    feeMarketCapSchedulerParam: {
      startingFeeBps: 5000,
      endingFeeBps: 100,
      numberOfPeriod: 180,
      sqrtPriceStepBps: 200,
      schedulerExpirationDuration: 2592000,
    },
  },
  6,
  ActivationType.Timestamp
);

Notes

Returns the base fee parameters in encoded Borsh format. (data: number[])

getDynamicFeeParams

Calculates the parameters needed for dynamic fee. This function will always return dynamic fee parameters that are configured to be 20% of the feeBps that you input in.

Key Features

Configures volatility-based fee parameters
Sets maximum price change thresholds
Calculates variable fee control parameters

Fee Codec Functions

These functions are used to encode and decode base fee parameters. There are two serialization formats:

Borsh format (30 bytes): Used in EvtInitializePool events
PodAligned format (32 bytes): Used in poolState account data

encodeFeeTimeSchedulerParams

Encodes Fee Time Scheduler parameters into Borsh format for pool creation.

Function

encodeFeeTimeSchedulerParams(
  cliffFeeNumerator: BN,
  numberOfPeriod: number,
  periodFrequency: BN,
  reductionFactor: BN,
  baseFeeMode: BaseFeeMode
): Buffer

Parameters

cliffFeeNumerator: Starting fee numerator (e.g., 500000000 = 50%)
numberOfPeriod: Number of fee reduction periods
periodFrequency: Time between periods (slots or seconds)
reductionFactor: Fee reduction per period
baseFeeMode: BaseFeeMode.FeeTimeSchedulerLinear (0) or BaseFeeMode.FeeTimeSchedulerExponential (1)

Returns

A Buffer containing the Borsh-encoded fee parameters.

Example

const encoded = encodeFeeTimeSchedulerParams(
  new BN(500000000), // 50% starting fee
  100, // 100 periods
  new BN(6), // 6 seconds between periods
  new BN(4900000), // reduction factor
  BaseFeeMode.FeeTimeSchedulerLinear
);

encodeFeeMarketCapSchedulerParams

Encodes Fee Market Cap Scheduler parameters into Borsh format for pool creation.

Function

encodeFeeMarketCapSchedulerParams(
  cliffFeeNumerator: BN,
  numberOfPeriod: number,
  sqrtPriceStepBps: number,
  schedulerExpirationDuration: number,
  reductionFactor: BN,
  baseFeeMode: BaseFeeMode
): Buffer

Parameters

cliffFeeNumerator: Starting fee numerator (e.g., 500000000 = 50%)
numberOfPeriod: Number of fee reduction periods
sqrtPriceStepBps: Sqrt price step in basis points to advance one period
schedulerExpirationDuration: Duration after which scheduler expires (slots or seconds)
reductionFactor: Fee reduction per period
baseFeeMode: BaseFeeMode.FeeMarketCapSchedulerLinear (3) or BaseFeeMode.FeeMarketCapSchedulerExponential (4)

Returns

A Buffer containing the Borsh-encoded fee parameters.

Example

const encoded = encodeFeeMarketCapSchedulerParams(
  new BN(500000000), // 50% starting fee
  100, // 100 periods
  100, // 1% sqrt price step
  86400, // 24 hours expiration
  new BN(4950000), // reduction factor
  BaseFeeMode.FeeMarketCapSchedulerLinear
);

encodeFeeRateLimiterParams

Encodes Rate Limiter parameters into Borsh format for pool creation.

Function

encodeFeeRateLimiterParams(
  cliffFeeNumerator: BN,
  feeIncrementBps: number,
  maxLimiterDuration: number,
  maxFeeBps: number,
  referenceAmount: BN
): Buffer

Parameters

cliffFeeNumerator: Base fee numerator (e.g., 10000000 = 1%)
feeIncrementBps: Fee increment in basis points per reference amount
maxLimiterDuration: Maximum duration for rate limiter (slots or seconds)
maxFeeBps: Maximum fee cap in basis points
referenceAmount: Reference amount for fee calculation (in lamports)

Returns

A Buffer containing the Borsh-encoded fee parameters.

Example

const encoded = encodeFeeRateLimiterParams(
  new BN(10000000), // 1% base fee
  10, // 0.1% fee increment per reference amount
  10, // 10 slots/seconds max duration
  5000, // 50% max fee cap
  new BN(1000000000) // 1 SOL reference amount
);

decodeFeeTimeSchedulerParams

Decodes Borsh-encoded Fee Time Scheduler parameters (from EvtInitializePool events).

Function

decodeFeeTimeSchedulerParams(data: Buffer): BorshFeeTimeScheduler

Parameters

data: A Buffer containing Borsh-encoded fee data (30 bytes)

Returns

interface BorshFeeTimeScheduler {
  cliffFeeNumerator: BN;
  numberOfPeriod: number;
  periodFrequency: BN;
  reductionFactor: BN;
  baseFeeMode: number;
  padding: number[];
}

Example

// Decode from EvtInitializePool event
const decoded = decodeFeeTimeSchedulerParams(eventData.baseFee.data);
console.log(`Starting Fee: ${decoded.cliffFeeNumerator.toString()}`);
console.log(`Number of Periods: ${decoded.numberOfPeriod}`);

decodeFeeMarketCapSchedulerParams

Decodes Borsh-encoded Fee Market Cap Scheduler parameters (from EvtInitializePool events).

Function

decodeFeeMarketCapSchedulerParams(data: Buffer): BorshFeeMarketCapScheduler

Parameters

data: A Buffer containing Borsh-encoded fee data (30 bytes)

Returns

interface BorshFeeMarketCapScheduler {
  cliffFeeNumerator: BN;
  numberOfPeriod: number;
  sqrtPriceStepBps: number;
  schedulerExpirationDuration: number;
  reductionFactor: BN;
  baseFeeMode: number;
  padding: number[];
}

Example

// Decode from EvtInitializePool event
const decoded = decodeFeeMarketCapSchedulerParams(eventData.baseFee.data);
console.log(`Starting Fee: ${decoded.cliffFeeNumerator.toString()}`);
console.log(`Sqrt Price Step: ${decoded.sqrtPriceStepBps} bps`);

decodeFeeRateLimiterParams

Decodes Borsh-encoded Rate Limiter parameters (from EvtInitializePool events).

Function

decodeFeeRateLimiterParams(data: Buffer): BorshFeeRateLimiter

Parameters

data: A Buffer containing Borsh-encoded fee data (30 bytes)

Returns

interface BorshFeeRateLimiter {
  cliffFeeNumerator: BN;
  feeIncrementBps: number;
  maxLimiterDuration: number;
  maxFeeBps: number;
  referenceAmount: BN;
  baseFeeMode: number;
  padding: number[];
}

Example

// Decode from EvtInitializePool event
const decoded = decodeFeeRateLimiterParams(eventData.baseFee.data);
console.log(`Base Fee: ${decoded.cliffFeeNumerator.toString()}`);
console.log(`Max Fee: ${decoded.maxFeeBps} bps`);

decodePodAlignedFeeTimeScheduler

Decodes PodAligned Fee Time Scheduler parameters (from poolState account data).

Function

decodePodAlignedFeeTimeScheduler(data: Buffer): PodAlignedFeeTimeScheduler

Parameters

data: A Buffer containing PodAligned fee data (32 bytes)

Returns

interface PodAlignedFeeTimeScheduler {
  cliffFeeNumerator: BN;
  numberOfPeriod: number;
  periodFrequency: BN;
  reductionFactor: BN;
  baseFeeMode: number;
  padding: number[];
}

Example

// Decode from poolState account
const poolState = await program.account.pool.fetch(poolAddress);
const decoded = decodePodAlignedFeeTimeScheduler(
  Buffer.from(poolState.poolFees.baseFee.data)
);
console.log(`Current Fee Config: ${decoded.cliffFeeNumerator.toString()}`);

decodePodAlignedFeeMarketCapScheduler

Decodes PodAligned Fee Market Cap Scheduler parameters (from poolState account data).

Function

decodePodAlignedFeeMarketCapScheduler(data: Buffer): PodAlignedFeeMarketCapScheduler

Parameters

data: A Buffer containing PodAligned fee data (32 bytes)

Returns

interface PodAlignedFeeMarketCapScheduler {
  cliffFeeNumerator: BN;
  numberOfPeriod: number;
  sqrtPriceStepBps: number;
  schedulerExpirationDuration: number;
  reductionFactor: BN;
  baseFeeMode: number;
  padding: number[];
}

Example

// Decode from poolState account
const poolState = await program.account.pool.fetch(poolAddress);
const decoded = decodePodAlignedFeeMarketCapScheduler(
  Buffer.from(poolState.poolFees.baseFee.data)
);
console.log(`Expiration Duration: ${decoded.schedulerExpirationDuration}`);

decodePodAlignedFeeRateLimiter

Decodes PodAligned Rate Limiter parameters (from poolState account data).

Function

decodePodAlignedFeeRateLimiter(data: Buffer): PodAlignedFeeRateLimiter

Parameters

data: A Buffer containing PodAligned fee data (32 bytes)

Returns

interface PodAlignedFeeRateLimiter {
  cliffFeeNumerator: BN;
  feeIncrementBps: number;
  maxLimiterDuration: number;
  maxFeeBps: number;
  referenceAmount: BN;
  baseFeeMode: number;
  padding: number[];
}

Example

// Decode from poolState account
const poolState = await program.account.pool.fetch(poolAddress);
const decoded = decodePodAlignedFeeRateLimiter(
  Buffer.from(poolState.poolFees.baseFee.data)
);
console.log(`Reference Amount: ${decoded.referenceAmount.toString()}`);

Decoding BaseFee Summary

When decoding baseFee.data, choose the decoder based on data source and baseFeeMode:

Data Source	Format	Size	baseFeeMode 0-1	baseFeeMode 2	baseFeeMode 3-4
`EvtInitializePool` event	Borsh	30 bytes	`decodeFeeTimeSchedulerParams`	`decodeFeeRateLimiterParams`	`decodeFeeMarketCapSchedulerParams`
`poolState` account	PodAligned	32 bytes	`decodePodAlignedFeeTimeScheduler`	`decodePodAlignedFeeRateLimiter`	`decodePodAlignedFeeMarketCapScheduler`

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Dynamic DAMM-V2 SDK: Function Documentation

Table of Contents

Core Functions

createPool

createCustomPool

createCustomPoolWithDynamicConfig

createPosition

getLiquidityDelta

getQuote

getQuote2

getDepositQuote

getWithdrawQuote

swap

swap2

addLiquidity

removeLiquidity

removeAllLiquidity

removeAllLiquidityAndClosePosition

mergePosition

lockPosition

permanentLockPosition

refreshVesting

claimPositionFee

claimPositionFee2

claimPartnerFee

initializeReward

initializeAndFundReward

updateRewardDuration

updateRewardFunder

fundReward

claimReward

withdrawIneligibleReward

closePosition

splitPosition

splitPosition2

State Functions

fetchConfigState

fetchPoolState

fetchPoolStatesByTokenAMint

fetchPositionState

getAllConfigs

getAllPools

getAllPositions

getAllPositionsByPool

getUserPositionByPool

getPositionsByUser

getAllVestingsByPosition

isLockedPosition

isPoolExist

Helper Functions

preparePoolCreationParams

isVestingComplete

getTotalLockedLiquidity

getAvailableVestingLiquidity

getMaxAmountWithSlippage

getAmountWithSlippage

getPriceImpact

Price Conversion Utilities

getPriceFromSqrtPrice

getSqrtPriceFromPrice

Fee Calculation Utilities

getUnClaimLpFee

getBaseFeeNumerator

getDynamicFeeNumerator

bpsToFeeNumerator

feeNumeratorToBps

getBaseFeeParams

getDynamicFeeParams

Fee Codec Functions

encodeFeeTimeSchedulerParams

encodeFeeMarketCapSchedulerParams

encodeFeeRateLimiterParams

decodeFeeTimeSchedulerParams

decodeFeeMarketCapSchedulerParams