use solana_sdk::{
instruction::AccountMeta,
pubkey::Pubkey,
signature::{Keypair, Signer},
transaction::Transaction,
};
mod common;
use common::*;
fn setup_exec_thread(
svm: &mut litesvm::LiteSVM,
authority: &Keypair,
payer: &Keypair,
_admin: &Pubkey,
id: &str,
trigger: Trigger,
memo: &str,
signal: Option<Signal>,
) -> (Pubkey, Pubkey) {
let thread_id = ThreadId::Bytes(id.as_bytes().to_vec());
let (thread_pubkey, _) = thread_pda(&authority.pubkey(), id.as_bytes());
let ix = build_create_thread(
&authority.pubkey(),
&payer.pubkey(),
&thread_pubkey,
10_000_000, thread_id,
trigger,
None,
None,
None,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&payer.pubkey()),
&[payer, authority],
blockhash,
);
svm.send_transaction(tx)
.expect("create_thread should succeed");
let (fiber_pubkey, _) = fiber_pda(&thread_pubkey, 0);
let memo_ix = make_memo_instruction(memo, signal);
let serializable = make_serializable_instruction(&memo_ix);
let ix = build_create_fiber(
&authority.pubkey(),
&thread_pubkey,
&fiber_pubkey,
0,
serializable,
0,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&payer.pubkey()),
&[payer, authority],
blockhash,
);
svm.send_transaction(tx)
.expect("create_fiber should succeed");
(thread_pubkey, fiber_pubkey)
}
fn build_remaining_accounts(executor: &Pubkey) -> Vec<AccountMeta> {
vec![
AccountMeta::new_readonly(PROGRAM_ID, false), AccountMeta::new_readonly(*executor, false), ]
}
#[test]
fn test_exec_thread_immediate_trigger() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-imm",
Trigger::Immediate { jitter: 0 },
"exec-test",
None,
);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
assert_eq!(thread.last_executor, executor.pubkey());
}
#[test]
fn test_exec_thread_paused_fails() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-paused",
Trigger::Immediate { jitter: 0 },
"test",
None,
);
let update_ix = build_update_thread(
&authority.pubkey(),
&thread_pubkey,
ThreadUpdateParams {
paused: Some(true),
..Default::default()
},
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[update_ix],
Some(&payer.pubkey()),
&[&payer, &authority],
blockhash,
);
svm.send_transaction(tx).unwrap();
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
let result = svm.send_transaction(tx);
assert!(result.is_err());
}
#[test]
fn test_exec_thread_global_pause_fails() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-gpause",
Trigger::Immediate { jitter: 0 },
"test",
None,
);
let update_ix = build_update_config(
&admin.pubkey(),
&config_pubkey,
ConfigUpdateParams {
paused: Some(true),
..Default::default()
},
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[update_ix],
Some(&admin.pubkey()),
&[&admin],
blockhash,
);
svm.send_transaction(tx).unwrap();
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
let result = svm.send_transaction(tx);
assert!(result.is_err());
}
#[test]
fn test_exec_thread_no_fibers_fails() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let thread_id = ThreadId::Bytes(b"exec-nofiber".to_vec());
let (thread_pubkey, _) = thread_pda(&authority.pubkey(), b"exec-nofiber");
let ix = build_create_thread(
&authority.pubkey(),
&payer.pubkey(),
&thread_pubkey,
5_000_000,
thread_id,
Trigger::Immediate { jitter: 0 },
None,
None,
None,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&payer.pubkey()),
&[&payer, &authority],
blockhash,
);
svm.send_transaction(tx).unwrap();
let (config_pubkey, _) = config_pda();
let (dummy_fiber, _) = fiber_pda(&thread_pubkey, 0);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&dummy_fiber,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
let result = svm.send_transaction(tx);
assert!(result.is_err());
}
#[test]
fn test_exec_thread_timestamp_not_ready() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let future_ts = get_clock(&svm).unix_timestamp + 3600; let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-notready",
Trigger::Timestamp {
unix_ts: future_ts,
jitter: 0,
},
"test",
None,
);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
let result = svm.send_transaction(tx);
assert!(result.is_err());
}
#[test]
fn test_exec_thread_timestamp_ready() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let clock = get_clock(&svm);
let target_ts = clock.unix_timestamp + 10;
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-ts-ready",
Trigger::Timestamp {
unix_ts: target_ts,
jitter: 0,
},
"test",
None,
);
advance_clock(&mut svm, 20);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
}
#[test]
fn test_exec_thread_interval_trigger() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-int",
Trigger::Interval {
seconds: 30,
skippable: false,
jitter: 0,
},
"test",
None,
);
advance_clock(&mut svm, 35);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
}
#[test]
fn test_exec_thread_slot_trigger() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let clock = get_clock(&svm);
let target_slot = clock.slot + 10;
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-slot",
Trigger::Slot { slot: target_slot },
"test",
None,
);
warp_to_slot(&mut svm, target_slot + 1);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
}
#[test]
fn test_exec_thread_fee_distribution() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-fee",
Trigger::Immediate { jitter: 0 },
"test",
None,
);
let executor_before = get_balance(&svm, &executor.pubkey());
let admin_before = get_balance(&svm, &admin.pubkey());
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let executor_after = get_balance(&svm, &executor.pubkey());
let admin_after = get_balance(&svm, &admin.pubkey());
assert!(admin_after > admin_before);
let _ = executor_before;
let _ = executor_after;
}
#[test]
fn test_exec_thread_forgo_commission() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-forgo",
Trigger::Immediate { jitter: 0 },
"test",
None,
);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
true, 0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
}
#[test]
fn test_exec_thread_signal_close() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-close",
Trigger::Immediate { jitter: 0 },
"close-test",
None,
);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(
thread.fiber_signal,
antegen_thread_program::state::Signal::Close
);
}
#[test]
fn test_exec_thread_signal_update_pause() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-sig-pause",
Trigger::Interval {
seconds: 10,
skippable: false,
jitter: 0,
},
"pause-test",
Some(Signal::Update {
paused: Some(true),
trigger: None,
index: None,
}),
);
advance_clock(&mut svm, 15);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
assert!(thread.paused, "Thread should be paused after Signal::Update with paused=true");
}
#[test]
fn test_exec_thread_signal_update_trigger() {
let (mut svm, admin, payer) = create_test_env();
let authority = Keypair::new();
let executor = Keypair::new();
svm.airdrop(&authority.pubkey(), DEFAULT_AIRDROP).unwrap();
svm.airdrop(&executor.pubkey(), DEFAULT_AIRDROP).unwrap();
let (config_pubkey, _) = config_pda();
let new_trigger = Trigger::Timestamp {
unix_ts: 999_999_999,
jitter: 0,
};
let (thread_pubkey, fiber_pubkey) = setup_exec_thread(
&mut svm,
&authority,
&payer,
&admin.pubkey(),
"exec-sig-trig",
Trigger::Interval {
seconds: 10,
skippable: false,
jitter: 0,
},
"trigger-test",
Some(Signal::Update {
paused: None,
trigger: Some(new_trigger.clone()),
index: None,
}),
);
advance_clock(&mut svm, 15);
let remaining = build_remaining_accounts(&executor.pubkey());
let ix = build_exec_thread(
&executor.pubkey(),
&thread_pubkey,
&fiber_pubkey,
&config_pubkey,
&admin.pubkey(),
false,
0,
&remaining,
);
let blockhash = svm.latest_blockhash();
let tx = Transaction::new_signed_with_payer(
&[ix],
Some(&executor.pubkey()),
&[&executor],
blockhash,
);
svm.send_transaction(tx).unwrap();
let thread = deserialize_thread(&svm, &thread_pubkey);
assert_eq!(thread.exec_count, 1);
assert!(!thread.paused, "Thread should not be paused");
assert_eq!(thread.trigger, new_trigger, "Trigger should be updated to Timestamp");
}