Add Engine X virtual batch canary vault
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This commit is contained in:
defiQUG
2026-05-07 07:09:17 -07:00
parent bb64836886
commit 27f8e3a500
2 changed files with 543 additions and 0 deletions

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// SPDX-License-Identifier: MIT
pragma solidity ^0.8.20;
import {IERC20} from "@openzeppelin/contracts/token/ERC20/IERC20.sol";
import {SafeERC20} from "@openzeppelin/contracts/token/ERC20/utils/SafeERC20.sol";
import {Ownable} from "@openzeppelin/contracts/access/Ownable.sol";
import {ReentrancyGuard} from "@openzeppelin/contracts/utils/ReentrancyGuard.sol";
/// @notice Engine X maintained proof vault with virtual batch settlement.
/// @dev Use only for accounting proofs: it compresses identical maintained loops into one net settlement.
contract DBISEngineXVirtualBatchVault is Ownable, ReentrancyGuard {
using SafeERC20 for IERC20;
IERC20 public immutable cWUSDC;
IERC20 public immutable usdc;
IERC20 public immutable xaut;
uint256 public poolCwusdcReserve;
uint256 public poolUsdcReserve;
uint256 public lenderUsdcAvailable;
uint256 public totalNeutralizedCwusdc;
uint256 public totalVirtualLoops;
uint256 public totalVirtualDebtUsdc;
uint256 public totalVirtualCwusdcIn;
mapping(bytes32 => bool) public usedProofIds;
uint256 public immutable xautUsdPrice6;
uint256 public immutable ltvBps;
uint256 public immutable maxRoundTripLossBps;
address public surplusReceiver;
event PoolSeeded(uint256 cwusdcAmount, uint256 usdcAmount);
event LenderFunded(uint256 usdcAmount);
event SurplusReceiverUpdated(address indexed receiver);
event VirtualProofClosed(
bytes32 indexed proofId,
uint256 virtualLoops,
uint256 debtUsdcPerLoop,
uint256 collateralXaut,
uint256 cwusdcInPerLoop,
uint256 cwusdcOutPerLoop,
uint256 cwusdcLossPerLoop,
uint256 totalCwusdcInAmount,
uint256 totalCwusdcOutAmount,
uint256 totalNeutralizedCwusdcAmount,
uint256 poolCwusdcReserveAfter,
uint256 poolUsdcReserveAfter
);
event VirtualProofAuditEvidence(
bytes32 indexed proofId,
address indexed operator,
address indexed outputRecipient,
uint256 exactOutputAmount,
uint256 outputRoundingAmount,
address roundingReceiver,
bytes32 iso20022DocumentHash,
bytes32 auditEnvelopeHash,
bytes32 pegProofHash
);
event OwnerWithdraw(address indexed token, address indexed to, uint256 amount);
constructor(
address cWUSDC_,
address usdc_,
address xaut_,
address owner_,
address surplusReceiver_,
uint256 xautUsdPrice6_,
uint256 ltvBps_,
uint256 maxRoundTripLossBps_
) Ownable(owner_) {
require(cWUSDC_ != address(0) && usdc_ != address(0) && xaut_ != address(0), "zero token");
require(owner_ != address(0), "zero owner");
require(surplusReceiver_ != address(0), "zero receiver");
require(xautUsdPrice6_ > 0, "zero price");
require(ltvBps_ > 0 && ltvBps_ < 10_000, "bad ltv");
require(maxRoundTripLossBps_ > 0 && maxRoundTripLossBps_ < 10_000, "bad loss");
cWUSDC = IERC20(cWUSDC_);
usdc = IERC20(usdc_);
xaut = IERC20(xaut_);
surplusReceiver = surplusReceiver_;
xautUsdPrice6 = xautUsdPrice6_;
ltvBps = ltvBps_;
maxRoundTripLossBps = maxRoundTripLossBps_;
}
function seedPool(uint256 cwusdcAmount, uint256 usdcAmount) external onlyOwner nonReentrant {
require(cwusdcAmount > 0 && usdcAmount > 0, "zero seed");
cWUSDC.safeTransferFrom(msg.sender, address(this), cwusdcAmount);
usdc.safeTransferFrom(msg.sender, address(this), usdcAmount);
poolCwusdcReserve += cwusdcAmount;
poolUsdcReserve += usdcAmount;
emit PoolSeeded(cwusdcAmount, usdcAmount);
}
function fundLender(uint256 usdcAmount) external onlyOwner nonReentrant {
require(usdcAmount > 0, "zero fund");
usdc.safeTransferFrom(msg.sender, address(this), usdcAmount);
lenderUsdcAvailable += usdcAmount;
emit LenderFunded(usdcAmount);
}
function setSurplusReceiver(address receiver) external onlyOwner {
require(receiver != address(0), "zero receiver");
surplusReceiver = receiver;
emit SurplusReceiverUpdated(receiver);
}
function previewCwusdcInForExactUsdc(uint256 usdcOut) public view returns (uint256) {
return _getAmountIn(usdcOut, poolCwusdcReserve, poolUsdcReserve);
}
function previewCwusdcOutForExactUsdcIn(uint256 usdcIn) public view returns (uint256) {
return _getAmountOut(usdcIn, poolUsdcReserve, poolCwusdcReserve);
}
function currentSurplusCwusdc() public view returns (uint256) {
return poolCwusdcReserve > poolUsdcReserve ? poolCwusdcReserve - poolUsdcReserve : 0;
}
function minimumXautCollateral(uint256 debtUsdc) public view returns (uint256) {
uint256 numerator = debtUsdc * 1e6 * 10_000;
uint256 denominator = xautUsdPrice6 * ltvBps;
return (numerator + denominator - 1) / denominator;
}
function previewVirtualProof(uint256 debtUsdcPerLoop, uint256 virtualLoops)
public
view
returns (
uint256 collateralXaut,
uint256 cwusdcInPerLoop,
uint256 cwusdcOutPerLoop,
uint256 cwusdcLossPerLoop,
uint256 totalCwusdcInAmount,
uint256 totalCwusdcOutAmount,
uint256 totalNeutralizedCwusdcAmount
)
{
require(virtualLoops > 0, "zero loops");
require(poolCwusdcReserve == poolUsdcReserve, "pool not maintained");
require(lenderUsdcAvailable >= debtUsdcPerLoop, "insufficient lender usdc");
collateralXaut = minimumXautCollateral(debtUsdcPerLoop);
cwusdcInPerLoop = _getAmountIn(debtUsdcPerLoop, poolCwusdcReserve, poolUsdcReserve);
uint256 cwusdcReserveAfterIn = poolCwusdcReserve + cwusdcInPerLoop;
uint256 usdcReserveAfterOut = poolUsdcReserve - debtUsdcPerLoop;
cwusdcOutPerLoop = _getAmountOut(debtUsdcPerLoop, usdcReserveAfterOut, cwusdcReserveAfterIn);
cwusdcLossPerLoop = cwusdcInPerLoop - cwusdcOutPerLoop;
require(cwusdcLossPerLoop * 10_000 <= cwusdcInPerLoop * maxRoundTripLossBps, "roundtrip loss too high");
totalCwusdcInAmount = cwusdcInPerLoop * virtualLoops;
totalCwusdcOutAmount = cwusdcOutPerLoop * virtualLoops;
totalNeutralizedCwusdcAmount = cwusdcLossPerLoop * virtualLoops;
}
function runVirtualProof(bytes32 proofId, uint256 debtUsdcPerLoop, uint256 virtualLoops) external nonReentrant {
_runVirtualProofFor(
msg.sender, proofId, debtUsdcPerLoop, virtualLoops, 0, msg.sender, bytes32(0), bytes32(0), bytes32(0)
);
}
function runVirtualProofTo(bytes32 proofId, uint256 debtUsdcPerLoop, uint256 virtualLoops, address outputRecipient)
external
nonReentrant
{
require(outputRecipient != address(0), "zero output");
_runVirtualProofFor(
outputRecipient, proofId, debtUsdcPerLoop, virtualLoops, 0, msg.sender, bytes32(0), bytes32(0), bytes32(0)
);
}
function runVirtualProofExactOutTo(
bytes32 proofId,
uint256 debtUsdcPerLoop,
uint256 virtualLoops,
address outputRecipient,
uint256 exactOutputAmount,
address roundingReceiver,
bytes32 iso20022DocumentHash,
bytes32 auditEnvelopeHash,
bytes32 pegProofHash
) external nonReentrant {
require(outputRecipient != address(0), "zero output");
require(exactOutputAmount > 0, "zero exact output");
require(roundingReceiver != address(0), "zero rounding");
require(iso20022DocumentHash != bytes32(0), "zero iso hash");
require(auditEnvelopeHash != bytes32(0), "zero audit hash");
require(pegProofHash != bytes32(0), "zero peg hash");
_runVirtualProofFor(
outputRecipient,
proofId,
debtUsdcPerLoop,
virtualLoops,
exactOutputAmount,
roundingReceiver,
iso20022DocumentHash,
auditEnvelopeHash,
pegProofHash
);
}
function _runVirtualProofFor(
address outputRecipient,
bytes32 proofId,
uint256 debtUsdcPerLoop,
uint256 virtualLoops,
uint256 exactOutputAmount,
address roundingReceiver,
bytes32 iso20022DocumentHash,
bytes32 auditEnvelopeHash,
bytes32 pegProofHash
) internal {
require(proofId != bytes32(0), "zero proof");
require(!usedProofIds[proofId], "proof used");
usedProofIds[proofId] = true;
(
uint256 collateralXaut,
uint256 cwusdcInPerLoop,
uint256 cwusdcOutPerLoop,
uint256 cwusdcLossPerLoop,
uint256 totalCwusdcInAmount,
uint256 totalCwusdcOutAmount,
uint256 totalNeutralizedCwusdcAmount
) = previewVirtualProof(debtUsdcPerLoop, virtualLoops);
require(exactOutputAmount <= totalCwusdcOutAmount, "exact output too high");
uint256 outputAmount = exactOutputAmount == 0 ? totalCwusdcOutAmount : exactOutputAmount;
uint256 outputRoundingAmount = totalCwusdcOutAmount - outputAmount;
xaut.safeTransferFrom(msg.sender, address(this), collateralXaut);
cWUSDC.safeTransferFrom(msg.sender, address(this), totalCwusdcInAmount);
cWUSDC.safeTransfer(outputRecipient, outputAmount);
if (outputRoundingAmount > 0) {
cWUSDC.safeTransfer(roundingReceiver, outputRoundingAmount);
}
cWUSDC.safeTransfer(surplusReceiver, totalNeutralizedCwusdcAmount);
xaut.safeTransfer(msg.sender, collateralXaut);
totalNeutralizedCwusdc += totalNeutralizedCwusdcAmount;
totalVirtualLoops += virtualLoops;
totalVirtualDebtUsdc += debtUsdcPerLoop * virtualLoops;
totalVirtualCwusdcIn += totalCwusdcInAmount;
emit VirtualProofClosed(
proofId,
virtualLoops,
debtUsdcPerLoop,
collateralXaut,
cwusdcInPerLoop,
cwusdcOutPerLoop,
cwusdcLossPerLoop,
totalCwusdcInAmount,
totalCwusdcOutAmount,
totalNeutralizedCwusdcAmount,
poolCwusdcReserve,
poolUsdcReserve
);
if (iso20022DocumentHash != bytes32(0) || auditEnvelopeHash != bytes32(0) || pegProofHash != bytes32(0)) {
emit VirtualProofAuditEvidence(
proofId,
msg.sender,
outputRecipient,
exactOutputAmount,
outputRoundingAmount,
roundingReceiver,
iso20022DocumentHash,
auditEnvelopeHash,
pegProofHash
);
}
}
function withdraw(address token, address to, uint256 amount) external onlyOwner nonReentrant {
require(to != address(0), "zero to");
IERC20(token).safeTransfer(to, amount);
emit OwnerWithdraw(token, to, amount);
}
function _getAmountIn(uint256 amountOut, uint256 reserveIn, uint256 reserveOut) internal pure returns (uint256) {
require(amountOut > 0, "insufficient output");
require(reserveIn > 0 && reserveOut > amountOut, "insufficient liquidity");
uint256 numerator = reserveIn * amountOut * 1000;
uint256 denominator = (reserveOut - amountOut) * 997;
return (numerator / denominator) + 1;
}
function _getAmountOut(uint256 amountIn, uint256 reserveIn, uint256 reserveOut) internal pure returns (uint256) {
require(amountIn > 0, "insufficient input");
require(reserveIn > 0 && reserveOut > 0, "insufficient liquidity");
uint256 amountInWithFee = amountIn * 997;
uint256 numerator = amountInWithFee * reserveOut;
uint256 denominator = reserveIn * 1000 + amountInWithFee;
return numerator / denominator;
}
}

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// SPDX-License-Identifier: MIT
pragma solidity ^0.8.20;
import {Test} from "forge-std/Test.sol";
import {DBISEngineXVirtualBatchVault} from "../../contracts/flash/DBISEngineXVirtualBatchVault.sol";
import {MockMintableToken} from "../dbis/MockMintableToken.sol";
contract DBISEngineXVirtualBatchVaultTest is Test {
MockMintableToken internal cwusdc;
MockMintableToken internal usdc;
MockMintableToken internal xaut;
DBISEngineXVirtualBatchVault internal vault;
address internal constant USER = address(0xBEEF);
address internal constant SURPLUS_RECEIVER = address(0xCAFE);
address internal constant OUTPUT_RECIPIENT = address(0xD00D);
address internal constant ROUNDING_RECEIVER = address(0xA11CE);
uint256 internal constant LIVE_POOL_RESERVE = 85_763_529;
uint256 internal constant LENDER_USDC = 5_000_000;
uint256 internal constant XAUT_USD_PRICE6 = 3_226_640_000;
uint256 internal constant LTV_BPS = 8_000;
uint256 internal constant MAX_ROUND_TRIP_LOSS_BPS = 100;
bytes32 internal constant ISO_HASH = bytes32(uint256(0x1001));
bytes32 internal constant AUDIT_HASH = bytes32(uint256(0x1002));
bytes32 internal constant PEG_HASH = bytes32(uint256(0x1003));
event VirtualProofAuditEvidence(
bytes32 indexed proofId,
address indexed operator,
address indexed outputRecipient,
uint256 exactOutputAmount,
uint256 outputRoundingAmount,
address roundingReceiver,
bytes32 iso20022DocumentHash,
bytes32 auditEnvelopeHash,
bytes32 pegProofHash
);
function setUp() public {
cwusdc = new MockMintableToken("Wrapped cWUSDC", "cWUSDC", 6, address(this));
usdc = new MockMintableToken("USD Coin", "USDC", 6, address(this));
xaut = new MockMintableToken("Tether Gold", "XAUt", 6, address(this));
vault = new DBISEngineXVirtualBatchVault(
address(cwusdc),
address(usdc),
address(xaut),
address(this),
SURPLUS_RECEIVER,
XAUT_USD_PRICE6,
LTV_BPS,
MAX_ROUND_TRIP_LOSS_BPS
);
cwusdc.mint(address(this), LIVE_POOL_RESERVE);
usdc.mint(address(this), LIVE_POOL_RESERVE + LENDER_USDC);
cwusdc.approve(address(vault), type(uint256).max);
usdc.approve(address(vault), type(uint256).max);
vault.seedPool(LIVE_POOL_RESERVE, LIVE_POOL_RESERVE);
vault.fundLender(LENDER_USDC);
cwusdc.mint(USER, 10_000_000_000_000_000);
xaut.mint(USER, 10_000_000);
vm.startPrank(USER);
cwusdc.approve(address(vault), type(uint256).max);
xaut.approve(address(vault), type(uint256).max);
vm.stopPrank();
}
function testPreviewMatchesLiveMaintainedLoopMath() public view {
(
uint256 collateralXaut,
uint256 cwusdcInPerLoop,
uint256 cwusdcOutPerLoop,
uint256 cwusdcLossPerLoop,
uint256 totalCwusdcInAmount,
uint256 totalCwusdcOutAmount,
uint256 totalNeutralizedCwusdcAmount
) = vault.previewVirtualProof(LENDER_USDC, 3);
assertEq(collateralXaut, 1_937, "collateral should match live 5 USDC floor");
assertEq(cwusdcInPerLoop, 5_325_523, "cwusdc in should match live proof");
assertEq(cwusdcOutPerLoop, 5_295_471, "cwusdc out should match live proof");
assertEq(cwusdcLossPerLoop, 30_052, "neutralized loss should match live proof");
assertEq(totalCwusdcInAmount, 15_976_569, "three-loop cWUSDC in should match live proof");
assertEq(totalCwusdcOutAmount, 15_886_413, "three-loop cWUSDC out should match live proof");
assertEq(totalNeutralizedCwusdcAmount, 90_156, "three-loop neutralization should match live proof");
}
function testVirtualProofNetSettlesAndKeepsPoolMaintained() public {
uint256 userCwusdcBefore = cwusdc.balanceOf(USER);
uint256 userXautBefore = xaut.balanceOf(USER);
vm.prank(USER);
vault.runVirtualProof(bytes32("proof-1"), LENDER_USDC, 3);
assertEq(vault.poolCwusdcReserve(), LIVE_POOL_RESERVE, "pool cWUSDC reserve should not drift");
assertEq(vault.poolUsdcReserve(), LIVE_POOL_RESERVE, "pool USDC reserve should not drift");
assertEq(vault.currentSurplusCwusdc(), 0, "pool surplus should stay neutralized");
assertEq(vault.lenderUsdcAvailable(), LENDER_USDC, "lender bucket should be reusable");
assertEq(cwusdc.balanceOf(USER), userCwusdcBefore - 90_156, "user only loses neutralized amount");
assertEq(cwusdc.balanceOf(SURPLUS_RECEIVER), 90_156, "receiver gets neutralized cWUSDC");
assertEq(xaut.balanceOf(USER), userXautBefore, "XAUt collateral should be returned");
assertEq(vault.totalVirtualLoops(), 3, "virtual loop counter");
assertEq(vault.totalVirtualDebtUsdc(), 15_000_000, "virtual debt counter");
assertEq(vault.totalVirtualCwusdcIn(), 15_976_569, "virtual cWUSDC in counter");
assertEq(vault.totalNeutralizedCwusdc(), 90_156, "neutralized counter");
assertTrue(vault.usedProofIds(bytes32("proof-1")), "proof id should be consumed");
}
function testVirtualProofCanSendOutputToRecipient() public {
uint256 userCwusdcBefore = cwusdc.balanceOf(USER);
uint256 userXautBefore = xaut.balanceOf(USER);
vm.prank(USER);
vault.runVirtualProofTo(bytes32("proof-to"), LENDER_USDC, 3, OUTPUT_RECIPIENT);
assertEq(vault.poolCwusdcReserve(), LIVE_POOL_RESERVE, "pool cWUSDC reserve should not drift");
assertEq(vault.poolUsdcReserve(), LIVE_POOL_RESERVE, "pool USDC reserve should not drift");
assertEq(cwusdc.balanceOf(USER), userCwusdcBefore - 15_976_569, "sender supplies gross cWUSDC");
assertEq(cwusdc.balanceOf(OUTPUT_RECIPIENT), 15_886_413, "recipient gets cWUSDC output");
assertEq(cwusdc.balanceOf(SURPLUS_RECEIVER), 90_156, "receiver gets neutralized cWUSDC");
assertEq(xaut.balanceOf(USER), userXautBefore, "XAUt collateral should be returned");
}
function testVirtualProofExactOutToAnchorsAuditProofsAndSendsRounding() public {
uint256 userCwusdcBefore = cwusdc.balanceOf(USER);
uint256 userXautBefore = xaut.balanceOf(USER);
uint256 exactOutput = 15_886_000;
bytes32 proofId = bytes32("proof-audit");
vm.expectEmit(true, true, true, true, address(vault));
emit VirtualProofAuditEvidence(
proofId, USER, OUTPUT_RECIPIENT, exactOutput, 413, ROUNDING_RECEIVER, ISO_HASH, AUDIT_HASH, PEG_HASH
);
vm.prank(USER);
vault.runVirtualProofExactOutTo(
proofId,
LENDER_USDC,
3,
OUTPUT_RECIPIENT,
exactOutput,
ROUNDING_RECEIVER,
ISO_HASH,
AUDIT_HASH,
PEG_HASH
);
assertEq(vault.poolCwusdcReserve(), LIVE_POOL_RESERVE, "pool cWUSDC reserve should not drift");
assertEq(vault.poolUsdcReserve(), LIVE_POOL_RESERVE, "pool USDC reserve should not drift");
assertEq(cwusdc.balanceOf(USER), userCwusdcBefore - 15_976_569, "sender supplies gross cWUSDC");
assertEq(cwusdc.balanceOf(OUTPUT_RECIPIENT), exactOutput, "recipient gets exact cWUSDC");
assertEq(cwusdc.balanceOf(ROUNDING_RECEIVER), 413, "rounding receiver gets output dust");
assertEq(cwusdc.balanceOf(SURPLUS_RECEIVER), 90_156, "receiver gets neutralized cWUSDC");
assertEq(xaut.balanceOf(USER), userXautBefore, "XAUt collateral should be returned");
}
function testVirtualLoopCountScalesTotalsButNotSequentialCollateral() public view {
uint256 loops = 938_874_924;
(
uint256 collateralXaut,
uint256 cwusdcInPerLoop,,
uint256 cwusdcLossPerLoop,
uint256 totalCwusdcInAmount,,
uint256 totalNeutralizedCwusdcAmount
) = vault.previewVirtualProof(LENDER_USDC, loops);
assertEq(collateralXaut, 1_937, "sequential virtual batch reuses one loop of XAUt collateral");
assertEq(cwusdcInPerLoop, 5_325_523, "per-loop input stays constant");
assertEq(cwusdcLossPerLoop, 30_052, "per-loop neutralization stays constant");
assertEq(totalCwusdcInAmount, 5_000_000_001_885_252, "virtual batch covers 5B cWUSDC gross");
assertEq(totalNeutralizedCwusdcAmount, 28_215_069_216_048, "5B batch neutralized amount");
}
function testPreviewRevertsWhenPoolIsNotMaintained() public {
DBISEngineXVirtualBatchVault unevenVault = new DBISEngineXVirtualBatchVault(
address(cwusdc),
address(usdc),
address(xaut),
address(this),
SURPLUS_RECEIVER,
XAUT_USD_PRICE6,
LTV_BPS,
MAX_ROUND_TRIP_LOSS_BPS
);
cwusdc.mint(address(this), LIVE_POOL_RESERVE + 1);
usdc.mint(address(this), LIVE_POOL_RESERVE + LENDER_USDC);
cwusdc.approve(address(unevenVault), type(uint256).max);
usdc.approve(address(unevenVault), type(uint256).max);
unevenVault.seedPool(LIVE_POOL_RESERVE + 1, LIVE_POOL_RESERVE);
unevenVault.fundLender(LENDER_USDC);
vm.expectRevert(bytes("pool not maintained"));
unevenVault.previewVirtualProof(LENDER_USDC, 1);
}
function testRunVirtualProofRejectsDuplicateProofIds() public {
vm.prank(USER);
vault.runVirtualProof(bytes32("proof-1"), LENDER_USDC, 1);
vm.expectRevert(bytes("proof used"));
vm.prank(USER);
vault.runVirtualProof(bytes32("proof-1"), LENDER_USDC, 1);
}
function testRunVirtualProofToRejectsZeroRecipient() public {
vm.expectRevert(bytes("zero output"));
vm.prank(USER);
vault.runVirtualProofTo(bytes32("proof-zero"), LENDER_USDC, 1, address(0));
}
function testRunVirtualProofExactOutToRejectsMissingAuditHashes() public {
vm.expectRevert(bytes("zero iso hash"));
vm.prank(USER);
vault.runVirtualProofExactOutTo(
bytes32("proof-no-iso"),
LENDER_USDC,
1,
OUTPUT_RECIPIENT,
1,
ROUNDING_RECEIVER,
bytes32(0),
AUDIT_HASH,
PEG_HASH
);
}
function testRunVirtualProofExactOutToRejectsOutputAbovePreview() public {
vm.expectRevert(bytes("exact output too high"));
vm.prank(USER);
vault.runVirtualProofExactOutTo(
bytes32("proof-too-high"),
LENDER_USDC,
1,
OUTPUT_RECIPIENT,
5_295_472,
ROUNDING_RECEIVER,
ISO_HASH,
AUDIT_HASH,
PEG_HASH
);
}
}