Struct PoolState 

pub struct PoolState {
    pub tag: PoolStateTag,
    pub pool_token_mint: Address,
    pub assets: Vec<AssetInfo>,
    pub vault_signer: Address,
    pub vault_signer_nonce: u8,
    pub account_params: Vec<ParamDesc>,
    pub name: String,
    pub lqd_fee_vault: Address,
    pub initializer_fee_vault: Address,
    pub fee_rate: u32,
    pub admin_key: Option<Address>,
    pub custom_state: Vec<u8>,
}

Fields

tag: PoolStateTag

pool_token_mint: Address

Token mint account for the pool token.

assets: Vec<AssetInfo>

Mint and vaults for the assets in the pool.

vault_signer: Address

Mint authority for the pool token and owner for the assets in the pool.

vault_signer_nonce: u8

Nonce used to generate vault_signer.

account_params: Vec<ParamDesc>

Additional accounts that need to be included with every request.

name: String

User-friendly pool name.

lqd_fee_vault: Address

Vault for fees collected by the pool for LQD. Mint is the pool token mint.

initializer_fee_vault: Address

Vault for fees collected by the pool for the pool initializer. Mint is the pool token mint.

fee_rate: u32

Fee on creations and redemptions, per million tokens.

admin_key: Option<Address>

Meaning depends on the pool implementation.

custom_state: Vec<u8>

Trait Implementations

impl BorshDeserialize for PoolState

where PoolStateTag: BorshDeserialize, Address: BorshDeserialize, Vec<AssetInfo>: BorshDeserialize, u8: BorshDeserialize, Vec<ParamDesc>: BorshDeserialize, String: BorshDeserialize, u32: BorshDeserialize, Option<Address>: BorshDeserialize, Vec<u8>: BorshDeserialize,

fn deserialize(buf: &mut &[u8]) -> Result<Self, Error>

Deserializes this instance from a given slice of bytes. Updates the buffer to point at the remaining bytes.

fn try_from_slice(v: &[u8]) -> Result<Self, Error>

Deserialize this instance from a slice of bytes.

fn is_u8() -> bool

Whether Self is u8. NOTE: Vec<u8> is the most common use-case for serialization and deserialization, it’s worth handling it as a special case to improve performance. It’s a workaround for specific Vec<u8> implementation versus generic Vec<T> implementation. See https://github.com/rust-lang/rfcs/pull/1210 for details.

impl BorshSchema for PoolState

where PoolStateTag: BorshSchema, Address: BorshSchema, Vec<AssetInfo>: BorshSchema, u8: BorshSchema, Vec<ParamDesc>: BorshSchema, String: BorshSchema, u32: BorshSchema, Option<Address>: BorshSchema, Vec<u8>: BorshSchema,

fn declaration() -> Declaration

Get the name of the type without brackets.

fn add_definitions_recursively( definitions: &mut HashMap<Declaration, Definition>, )

Recursively, using DFS, add type definitions required for this type. For primitive types this is an empty map. Type definition explains how to serialize/deserialize a type.

fn add_definition( declaration: String, definition: Definition, definitions: &mut HashMap<String, Definition>, )

Helper method to add a single type definition to the map.

fn schema_container() -> BorshSchemaContainer

impl BorshSerialize for PoolState

where PoolStateTag: BorshSerialize, Address: BorshSerialize, Vec<AssetInfo>: BorshSerialize, u8: BorshSerialize, Vec<ParamDesc>: BorshSerialize, String: BorshSerialize, u32: BorshSerialize, Option<Address>: BorshSerialize, Vec<u8>: BorshSerialize,

fn serialize<W: Write>(&self, writer: &mut W) -> Result<(), Error>

fn try_to_vec(&self) -> Result<Vec<u8>, Error>

Serialize this instance into a vector of bytes.

fn is_u8() -> bool

Whether Self is u8. NOTE: Vec<u8> is the most common use-case for serialization and deserialization, it’s worth handling it as a special case to improve performance. It’s a workaround for specific Vec<u8> implementation versus generic Vec<T> implementation. See https://github.com/rust-lang/rfcs/pull/1210 for details.

impl Clone for PoolState

fn clone(&self) -> PoolState

Returns a duplicate of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl PartialEq for PoolState

fn eq(&self, other: &PoolState) -> bool

Tests for self and other values to be equal, and is used by ==.

fn ne(&self, other: &Rhs) -> bool

Tests for !=. The default implementation is almost always sufficient, and should not be overridden without very good reason.

impl Eq for PoolState

impl StructuralPartialEq for PoolState