wormhole/solana/modules/nft_bridge/program/tests/common.rs

712 lines
20 KiB
Rust

use borsh::{
BorshDeserialize,
};
use byteorder::{
BigEndian,
WriteBytesExt,
};
use libsecp256k1::{
PublicKey,
SecretKey,
};
use sha3::Digest;
use solana_program::{
instruction::Instruction,
program_pack::Pack,
pubkey::Pubkey,
system_instruction,
};
use solana_program_test::{
BanksClient,
BanksClientError,
ProgramTest,
};
use solana_sdk::{
commitment_config::CommitmentLevel,
rent::Rent,
secp256k1_instruction::new_secp256k1_instruction,
signature::{
Keypair,
Signer,
},
signers::Signers,
transaction::Transaction,
};
use solitaire::processors::seeded::Seeded;
use std::{
env,
io::{
Cursor,
Write,
},
time::SystemTime,
};
use nft_bridge::{
instructions,
types::*,
};
pub use helpers::*;
/// Simple API wrapper for quickly preparing and sending transactions.
pub async fn execute<T: Signers>(
client: &mut BanksClient,
payer: &Keypair,
signers: &T,
instructions: &[Instruction],
commitment_level: CommitmentLevel,
) -> Result<(), BanksClientError> {
let mut transaction = Transaction::new_with_payer(instructions, Some(&payer.pubkey()));
let recent_blockhash = client.get_latest_blockhash().await?;
transaction.sign(signers, recent_blockhash);
client
.process_transaction_with_commitment(transaction, commitment_level)
.await
}
mod helpers {
use super::*;
use bridge::{
accounts::FeeCollector,
types::ConsistencyLevel,
PostVAAData,
};
use nft_bridge::{
CompleteNativeData,
CompleteWrappedData,
CompleteWrappedMetaData,
RegisterChainData,
TransferNativeData,
TransferWrappedData,
};
use primitive_types::U256;
use solana_program_test::processor;
use nft_bridge::messages::{
PayloadGovernanceRegisterChain,
PayloadTransfer,
};
/// Generate `count` secp256k1 private keys, along with their ethereum-styled public key
/// encoding: 0x0123456789ABCDEF01234
pub fn generate_keys(count: u8) -> (Vec<[u8; 20]>, Vec<SecretKey>) {
let mut rng = rand::thread_rng();
// Generate Guardian Keys
let secret_keys: Vec<SecretKey> = std::iter::repeat_with(|| SecretKey::random(&mut rng))
.take(count as usize)
.collect();
(
secret_keys
.iter()
.map(|key| {
let public_key = PublicKey::from_secret_key(key);
let mut h = sha3::Keccak256::default();
h.write_all(&public_key.serialize()[1..]).unwrap();
let key: [u8; 32] = h.finalize().into();
let mut address = [0u8; 20];
address.copy_from_slice(&key[12..]);
address
})
.collect(),
secret_keys,
)
}
/// Initialize the test environment, spins up a solana-test-validator in the background so that
/// each test has a fresh environment to work within.
pub async fn setup() -> (BanksClient, Keypair, Pubkey, Pubkey) {
let (program, token_program) = (
env::var("BRIDGE_PROGRAM")
.unwrap_or_else(|_| "Bridge1p5gheXUvJ6jGWGeCsgPKgnE3YgdGKRVCMY9o".to_string())
.parse::<Pubkey>()
.unwrap(),
env::var("NFT_BRIDGE_PROGRAM")
.unwrap_or_else(|_| "NFTWqJR8YnRVqPDvTJrYuLrQDitTG5AScqbeghi4zSA".to_string())
.parse::<Pubkey>()
.unwrap(),
);
let mut builder = ProgramTest::new("bridge", program, processor!(bridge::solitaire));
builder.add_program("spl_token_metadata", spl_token_metadata::id(), None);
builder.add_program(
"nft_bridge",
token_program,
processor!(nft_bridge::solitaire),
);
// Some instructions go over the limit when tracing is enabled but we need that for better
// logging. We don't really care about the limit during these tests anyway.
builder.set_compute_max_units(u64::MAX);
let (client, payer, _) = builder.start().await;
(client, payer, program, token_program)
}
/// Fetch account data, the loop is there to re-attempt until data is available.
pub async fn get_account_data<T: BorshDeserialize>(
client: &mut BanksClient,
account: Pubkey,
) -> Option<T> {
let account = client
.get_account_with_commitment(account, CommitmentLevel::Processed)
.await
.unwrap()
.unwrap();
T::try_from_slice(&account.data).ok()
}
pub async fn initialize_bridge(
client: &mut BanksClient,
program: Pubkey,
payer: &Keypair,
initial_guardians: &[[u8; 20]],
) -> Result<(), BanksClientError> {
execute(
client,
payer,
&[payer],
&[bridge::instructions::initialize(
program,
payer.pubkey(),
50,
2_000_000_000,
initial_guardians,
)
.unwrap()],
CommitmentLevel::Processed,
)
.await
}
pub async fn initialize(
client: &mut BanksClient,
program: Pubkey,
payer: &Keypair,
bridge: Pubkey,
) -> Result<(), BanksClientError> {
let instruction = instructions::initialize(program, payer.pubkey(), bridge)
.expect("Could not create Initialize instruction");
execute(
client,
payer,
&[payer],
&[instruction],
CommitmentLevel::Processed,
)
.await
}
#[allow(clippy::too_many_arguments)]
pub async fn transfer_native(
client: &mut BanksClient,
program: Pubkey,
bridge: Pubkey,
payer: &Keypair,
message: &Keypair,
from: &Keypair,
from_owner: &Keypair,
mint: Pubkey,
) -> Result<(), BanksClientError> {
let instruction = instructions::transfer_native(
program,
bridge,
payer.pubkey(),
message.pubkey(),
from.pubkey(),
mint,
TransferNativeData {
nonce: 0,
target_address: [0u8; 32],
target_chain: 2,
},
)
.expect("Could not create Transfer Native");
execute(
client,
payer,
&[payer, from_owner, message],
&[
spl_token::instruction::approve(
&spl_token::id(),
&from.pubkey(),
&nft_bridge::accounts::AuthoritySigner::key(None, &program),
&from_owner.pubkey(),
&[],
1,
)
.unwrap(),
instruction,
],
CommitmentLevel::Processed,
)
.await
}
#[allow(clippy::too_many_arguments)]
pub async fn transfer_wrapped(
client: &mut BanksClient,
program: Pubkey,
bridge: Pubkey,
payer: &Keypair,
message: &Keypair,
from: Pubkey,
from_owner: &Keypair,
token_chain: u16,
token_address: Address,
token_id: U256,
) -> Result<(), BanksClientError> {
let instruction = instructions::transfer_wrapped(
program,
bridge,
payer.pubkey(),
message.pubkey(),
from,
from_owner.pubkey(),
token_chain,
token_address,
token_id,
TransferWrappedData {
nonce: 0,
target_address: [5u8; 32],
target_chain: 2,
},
)
.expect("Could not create Transfer Native");
execute(
client,
payer,
&[payer, from_owner, message],
&[
spl_token::instruction::approve(
&spl_token::id(),
&from,
&nft_bridge::accounts::AuthoritySigner::key(None, &program),
&from_owner.pubkey(),
&[],
1,
)
.unwrap(),
instruction,
],
CommitmentLevel::Processed,
)
.await
}
pub async fn register_chain(
client: &mut BanksClient,
program: Pubkey,
bridge: Pubkey,
message_acc: Pubkey,
vaa: PostVAAData,
payload: PayloadGovernanceRegisterChain,
payer: &Keypair,
) -> Result<(), BanksClientError> {
let instruction = instructions::register_chain(
program,
bridge,
payer.pubkey(),
message_acc,
vaa,
payload,
RegisterChainData {},
)
.expect("Could not create Transfer Native");
execute(
client,
payer,
&[payer],
&[instruction],
CommitmentLevel::Processed,
)
.await
}
#[allow(clippy::too_many_arguments)]
pub async fn complete_native(
client: &mut BanksClient,
program: Pubkey,
bridge: Pubkey,
message_acc: Pubkey,
vaa: PostVAAData,
_payload: PayloadTransfer,
payer: &Keypair,
to_authority: Pubkey,
mint: Pubkey,
) -> Result<(), BanksClientError> {
let instruction = instructions::complete_native(
program,
bridge,
payer.pubkey(),
message_acc,
vaa,
to_authority,
mint,
CompleteNativeData {},
)
.expect("Could not create Complete Native instruction");
execute(
client,
payer,
&[payer],
&[instruction],
CommitmentLevel::Processed,
)
.await
}
#[allow(clippy::too_many_arguments)]
pub async fn complete_wrapped(
client: &mut BanksClient,
program: Pubkey,
bridge: Pubkey,
message_acc: Pubkey,
vaa: PostVAAData,
payload: PayloadTransfer,
to: Pubkey,
payer: &Keypair,
) -> Result<(), BanksClientError> {
let instruction = instructions::complete_wrapped(
program,
bridge,
payer.pubkey(),
message_acc,
vaa,
payload,
to,
CompleteWrappedData {},
)
.expect("Could not create Complete Wrapped instruction");
execute(
client,
payer,
&[payer],
&[instruction],
CommitmentLevel::Processed,
)
.await
}
pub async fn complete_wrapped_meta(
client: &mut BanksClient,
program: Pubkey,
bridge: Pubkey,
message_acc: Pubkey,
vaa: PostVAAData,
payload: PayloadTransfer,
payer: &Keypair,
) -> Result<(), BanksClientError> {
let instruction = instructions::complete_wrapped_meta(
program,
bridge,
payer.pubkey(),
message_acc,
vaa,
payload,
CompleteWrappedMetaData {},
)
.expect("Could not create Complete Wrapped Meta instruction");
execute(
client,
payer,
&[payer],
&[instruction],
CommitmentLevel::Processed,
)
.await
}
pub async fn create_mint(
client: &mut BanksClient,
payer: &Keypair,
mint_authority: &Pubkey,
mint: &Keypair,
) -> Result<(), BanksClientError> {
let mint_key = mint.pubkey();
execute(
client,
payer,
&[payer, mint],
&[
solana_sdk::system_instruction::create_account(
&payer.pubkey(),
&mint_key,
Rent::default().minimum_balance(spl_token::state::Mint::LEN),
spl_token::state::Mint::LEN as u64,
&spl_token::id(),
),
spl_token::instruction::initialize_mint(
&spl_token::id(),
&mint_key,
mint_authority,
None,
0,
)
.unwrap(),
],
CommitmentLevel::Processed,
)
.await
}
pub async fn create_token_account(
client: &mut BanksClient,
payer: &Keypair,
token_acc: &Keypair,
token_authority: &Pubkey,
mint: &Pubkey,
) -> Result<(), BanksClientError> {
let token_key = token_acc.pubkey();
execute(
client,
payer,
&[payer, token_acc],
&[
solana_sdk::system_instruction::create_account(
&payer.pubkey(),
&token_key,
Rent::default().minimum_balance(spl_token::state::Account::LEN),
spl_token::state::Account::LEN as u64,
&spl_token::id(),
),
spl_token::instruction::initialize_account(
&spl_token::id(),
&token_key,
mint,
token_authority,
)
.unwrap(),
],
CommitmentLevel::Processed,
)
.await
}
#[allow(clippy::too_many_arguments)]
pub async fn create_spl_metadata(
client: &mut BanksClient,
payer: &Keypair,
metadata_account: Pubkey,
mint_authority: &Keypair,
mint: Pubkey,
update_authority: Pubkey,
name: String,
symbol: String,
uri: String,
) -> Result<(), BanksClientError> {
execute(
client,
payer,
&[payer, mint_authority],
&[spl_token_metadata::instruction::create_metadata_accounts(
spl_token_metadata::id(),
metadata_account,
mint,
mint_authority.pubkey(),
payer.pubkey(),
update_authority,
name,
symbol,
uri,
None,
0,
false,
false,
)],
CommitmentLevel::Processed,
)
.await
}
pub async fn mint_tokens(
client: &mut BanksClient,
payer: &Keypair,
mint_authority: &Keypair,
mint: &Keypair,
token_account: &Pubkey,
amount: u64,
) -> Result<(), BanksClientError> {
execute(
client,
payer,
&[payer, mint_authority],
&[spl_token::instruction::mint_to(
&spl_token::id(),
&mint.pubkey(),
token_account,
&mint_authority.pubkey(),
&[],
amount,
)
.unwrap()],
CommitmentLevel::Processed,
)
.await
}
/// Utility function for generating VAA's from message data.
pub fn generate_vaa<T: Into<Vec<u8>>>(
emitter: Address,
emitter_chain: u16,
data: T,
nonce: u32,
sequence: u64,
) -> (PostVAAData, [u8; 32], [u8; 32]) {
let vaa = PostVAAData {
version: 0,
guardian_set_index: 0,
// Body part
emitter_chain,
emitter_address: emitter,
sequence,
payload: data.into(),
timestamp: SystemTime::now()
.duration_since(SystemTime::UNIX_EPOCH)
.unwrap()
.as_secs() as u32,
nonce,
consistency_level: ConsistencyLevel::Confirmed as u8,
};
// Hash data, the thing we wish to actually sign.
let body = {
let mut v = Cursor::new(Vec::new());
v.write_u32::<BigEndian>(vaa.timestamp).unwrap();
v.write_u32::<BigEndian>(vaa.nonce).unwrap();
v.write_u16::<BigEndian>(vaa.emitter_chain).unwrap();
v.write_all(&vaa.emitter_address).unwrap();
v.write_u64::<BigEndian>(vaa.sequence).unwrap();
v.write_u8(vaa.consistency_level).unwrap();
v.write_all(&vaa.payload).unwrap();
v.into_inner()
};
// Hash this body, which is expected to be the same as the hash currently stored in the
// signature account, binding that set of signatures to this VAA.
let body: [u8; 32] = {
let mut h = sha3::Keccak256::default();
h.write_all(body.as_slice()).unwrap();
h.finalize().into()
};
let body_hash: [u8; 32] = {
let mut h = sha3::Keccak256::default();
h.write_all(&body).unwrap();
h.finalize().into()
};
(vaa, body, body_hash)
}
pub async fn verify_signatures(
client: &mut BanksClient,
program: &Pubkey,
payer: &Keypair,
body: [u8; 32],
secret_keys: &[SecretKey],
guardian_set_version: u32,
) -> Result<Pubkey, BanksClientError> {
let signature_set = Keypair::new();
let tx_signers = [payer, &signature_set];
// Push Secp256k1 instructions for each signature we want to verify.
for (i, key) in secret_keys.iter().enumerate() {
// Set this signers signature position as present at 0.
let mut signers = [-1; 19];
signers[i] = 0;
execute(
client,
payer,
&tx_signers,
&[
new_secp256k1_instruction(key, &body),
bridge::instructions::verify_signatures(
*program,
payer.pubkey(),
guardian_set_version,
signature_set.pubkey(),
bridge::VerifySignaturesData { signers },
)
.unwrap(),
],
CommitmentLevel::Processed,
)
.await?;
}
Ok(signature_set.pubkey())
}
pub async fn post_vaa(
client: &mut BanksClient,
program: Pubkey,
payer: &Keypair,
signature_set: Pubkey,
vaa: PostVAAData,
) -> Result<(), BanksClientError> {
let instruction =
bridge::instructions::post_vaa(program, payer.pubkey(), signature_set, vaa);
execute(
client,
payer,
&[payer],
&[instruction],
CommitmentLevel::Processed,
)
.await
}
#[allow(clippy::too_many_arguments)]
// This function is not used, but looks useful...
#[allow(dead_code)]
pub async fn post_message(
client: &mut BanksClient,
program: Pubkey,
payer: &Keypair,
emitter: &Keypair,
message: &Keypair,
nonce: u32,
data: Vec<u8>,
fee: u64,
) -> Result<(), BanksClientError> {
// Transfer money into the fee collector as it needs a balance/must exist.
let fee_collector = FeeCollector::<'_>::key(None, &program);
// Capture the resulting message, later functions will need this.
let instruction = bridge::instructions::post_message(
program,
payer.pubkey(),
emitter.pubkey(),
message.pubkey(),
nonce,
data,
ConsistencyLevel::Confirmed,
)
.unwrap();
execute(
client,
payer,
&[payer, emitter, message],
&[
system_instruction::transfer(&payer.pubkey(), &fee_collector, fee),
instruction,
],
CommitmentLevel::Processed,
)
.await
}
}