use crate::{get_wallet, spawn_anvil, spawn_anvil_ws}; use ethers_core::types::*; use ethers_middleware::{signer::SignerMiddleware, MiddlewareBuilder}; use ethers_providers::{JsonRpcClient, Middleware}; use ethers_signers::{LocalWallet, Signer}; #[tokio::test] async fn send_eth() { let (provider, anvil) = spawn_anvil(); let wallet = get_wallet(&anvil, 0); let address = wallet.address(); let provider = provider.with_signer(wallet); let to = anvil.addresses()[1]; // craft the transaction let tx = TransactionRequest::new().to(to).value(10000); let balance_before = provider.get_balance(address, None).await.unwrap(); // send it! provider.send_transaction(tx, None).await.unwrap().await.unwrap().unwrap(); let balance_after = provider.get_balance(address, None).await.unwrap(); assert!(balance_before > balance_after); } #[tokio::test] async fn typed_txs() { let (provider, anvil) = spawn_anvil(); let wallet = get_wallet(&anvil, 0); let address = wallet.address(); let provider = provider.with_signer(wallet); let nonce = provider.get_transaction_count(address, None).await.unwrap(); let bn = Some(BlockNumber::Pending.into()); let gas_price = provider.get_gas_price().await.unwrap() * 125 / 100; let tx = TransactionRequest::new().from(address).to(address).nonce(nonce).gas_price(gas_price); let tx1 = provider.send_transaction(tx.clone(), bn).await.unwrap(); let tx = tx.from(address).to(address).nonce(nonce + 1).with_access_list(vec![]); let tx2 = provider.send_transaction(tx, bn).await.unwrap(); let tx = Eip1559TransactionRequest::new() .from(address) .to(address) .nonce(nonce + 2) .max_fee_per_gas(gas_price) .max_priority_fee_per_gas(gas_price); let tx3 = provider.send_transaction(tx, bn).await.unwrap(); futures_util::join!(check_tx(tx1, 0), check_tx(tx2, 1), check_tx(tx3, 2)); } #[tokio::test] async fn send_transaction_handles_tx_from_field() { // launch anvil let (provider, anvil) = spawn_anvil_ws().await; // grab 2 wallets let signer: LocalWallet = anvil.keys()[0].clone().into(); let other: LocalWallet = anvil.keys()[1].clone().into(); // connect to the network let provider = SignerMiddleware::new_with_provider_chain(provider, signer.clone()).await.unwrap(); // sending a TransactionRequest with a from field of None should result // in a transaction from the signer address let request_from_none = TransactionRequest::new(); let receipt = provider.send_transaction(request_from_none, None).await.unwrap().await.unwrap().unwrap(); let sent_tx = provider.get_transaction(receipt.transaction_hash).await.unwrap().unwrap(); assert_eq!(sent_tx.from, signer.address()); // sending a TransactionRequest with the signer as the from address should // result in a transaction from the signer address let request_from_signer = TransactionRequest::new().from(signer.address()); let receipt = provider.send_transaction(request_from_signer, None).await.unwrap().await.unwrap().unwrap(); let sent_tx = provider.get_transaction(receipt.transaction_hash).await.unwrap().unwrap(); assert_eq!(sent_tx.from, signer.address()); // sending a TransactionRequest with a from address that is not the signer // should result in a transaction from the specified address let request_from_other = TransactionRequest::new().from(other.address()); let receipt = provider.send_transaction(request_from_other, None).await.unwrap().await.unwrap().unwrap(); let sent_tx = provider.get_transaction(receipt.transaction_hash).await.unwrap().unwrap(); assert_eq!(sent_tx.from, other.address()); } async fn check_tx( pending_tx: ethers_providers::PendingTransaction<'_, P>, expected: u64, ) { let provider = pending_tx.provider(); let receipt = pending_tx.await.unwrap().unwrap(); let tx = provider.get_transaction(receipt.transaction_hash).await.unwrap().unwrap(); let expected = U64::from(expected); for ty in [receipt.transaction_type, tx.transaction_type] { // legacy can be either None or Some(0) if expected.is_zero() { assert!(ty.is_none() || ty == Some(0.into())); } else { assert_eq!(ty, Some(expected)); } } }