feat: Implement comprehensive Market Manager with database and logging

- Add complete Market Manager package with in-memory storage and CRUD operations
- Implement arbitrage detection with profit calculations and thresholds
- Add database adapter with PostgreSQL schema for persistence
- Create comprehensive logging system with specialized log files
- Add detailed documentation and implementation plans
- Include example application and comprehensive test suite
- Update Makefile with market manager build targets
- Add check-implementations command for verification
This commit is contained in:
Krypto Kajun
2025-09-18 03:52:33 -05:00
parent ac9798a7e5
commit fac8a64092
35 changed files with 6595 additions and 8 deletions

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package test
import (
"context"
"math/big"
"testing"
"time"
"github.com/ethereum/go-ethereum/common"
"github.com/fraktal/mev-beta/internal/logger"
"github.com/fraktal/mev-beta/pkg/profitcalc"
)
// TestComprehensiveArbitrageSystem demonstrates the complete enhanced arbitrage system
func TestComprehensiveArbitrageSystem(t *testing.T) {
// Create logger
log := logger.New("info", "text", "")
t.Log("=== Comprehensive Enhanced Arbitrage System Test ===")
// Test 1: Basic Profit Calculation
t.Log("\n--- Test 1: Basic Profit Calculation ---")
calc := profitcalc.NewSimpleProfitCalculator(log)
// WETH/USDC pair
wethAddr := common.HexToAddress("0x82af49447d8a07e3bd95bd0d56f35241523fbab1")
usdcAddr := common.HexToAddress("0xaf88d065e77c8cc2239327c5edb3a432268e5831")
opportunity := calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(2.0), // 2 ETH
big.NewFloat(4000.0), // 4000 USDC
"UniswapV3",
)
if opportunity != nil {
t.Logf("Basic Profit Analysis:")
t.Logf(" ID: %s", opportunity.ID)
t.Logf(" Net Profit: %s ETH", calc.FormatEther(opportunity.NetProfit))
t.Logf(" Profit Margin: %.4f%%", opportunity.ProfitMargin*100)
t.Logf(" Gas Cost: %s ETH", calc.FormatEther(opportunity.GasCost))
t.Logf(" Executable: %t", opportunity.IsExecutable)
t.Logf(" Confidence: %.2f", opportunity.Confidence)
t.Logf(" Slippage Risk: %s", opportunity.SlippageRisk)
if opportunity.SlippageAnalysis != nil {
t.Logf(" Slippage: %.4f%%", opportunity.SlippageAnalysis.EstimatedSlippage*100)
t.Logf(" Recommendation: %s", opportunity.SlippageAnalysis.Recommendation)
}
} else {
t.Error("Failed to create basic opportunity")
}
// Test 2: Opportunity Ranking System
t.Log("\n--- Test 2: Opportunity Ranking System ---")
ranker := profitcalc.NewOpportunityRanker(log)
// Create multiple opportunities with different characteristics
testOpportunities := []*profitcalc.SimpleOpportunity{
// High profit opportunity
calc.AnalyzeSwapOpportunity(context.Background(), wethAddr, usdcAddr,
big.NewFloat(10.0), big.NewFloat(20100.0), "UniswapV3"),
// Medium profit opportunity
calc.AnalyzeSwapOpportunity(context.Background(), wethAddr, usdcAddr,
big.NewFloat(5.0), big.NewFloat(10050.0), "SushiSwap"),
// Lower profit opportunity
calc.AnalyzeSwapOpportunity(context.Background(), wethAddr, usdcAddr,
big.NewFloat(1.0), big.NewFloat(2010.0), "Camelot"),
// Small opportunity (might be filtered)
calc.AnalyzeSwapOpportunity(context.Background(), wethAddr, usdcAddr,
big.NewFloat(0.1), big.NewFloat(200.0), "TraderJoe"),
}
// Add opportunities to ranker
var addedCount int
for i, opp := range testOpportunities {
if opp != nil {
ranked := ranker.AddOpportunity(opp)
if ranked != nil {
addedCount++
t.Logf("Added Opportunity %d: NetProfit=%s ETH, Confidence=%.2f",
i+1, calc.FormatEther(opp.NetProfit), opp.Confidence)
} else {
t.Logf("Opportunity %d filtered out", i+1)
}
}
}
// Get top opportunities
topOpps := ranker.GetTopOpportunities(3)
t.Logf("\nTop %d Opportunities by Score:", len(topOpps))
for _, opp := range topOpps {
t.Logf(" Rank %d: Score=%.4f, NetProfit=%s ETH, Risk=%s",
opp.Rank, opp.Score, calc.FormatEther(opp.NetProfit), opp.SlippageRisk)
}
// Get executable opportunities
executable := ranker.GetExecutableOpportunities(5)
t.Logf("\nExecutable Opportunities: %d", len(executable))
for _, opp := range executable {
t.Logf(" ID=%s, Profit=%s ETH, Confidence=%.2f",
opp.ID[:12], calc.FormatEther(opp.NetProfit), opp.Confidence)
}
// Test 3: Slippage Protection
t.Log("\n--- Test 3: Slippage Protection Analysis ---")
slippageProtector := profitcalc.NewSlippageProtector(log)
// Test different trade sizes for slippage analysis
testCases := []struct {
name string
tradeSize float64
liquidity float64
}{
{"Small trade", 1.0, 1000.0}, // 0.1% of pool
{"Medium trade", 50.0, 1000.0}, // 5% of pool
{"Large trade", 200.0, 1000.0}, // 20% of pool
{"Huge trade", 600.0, 1000.0}, // 60% of pool
}
currentPrice := big.NewFloat(2000.0) // 1 ETH = 2000 USDC
for _, tc := range testCases {
tradeAmount := big.NewFloat(tc.tradeSize)
poolLiquidity := big.NewFloat(tc.liquidity)
analysis := slippageProtector.AnalyzeSlippage(tradeAmount, poolLiquidity, currentPrice)
t.Logf("\n%s (%.1f%% of pool):", tc.name, tc.tradeSize/tc.liquidity*100)
t.Logf(" Slippage: %.4f%% (%d bps)", analysis.EstimatedSlippage*100, analysis.SlippageBps)
t.Logf(" Risk Level: %s", analysis.RiskLevel)
t.Logf(" Acceptable: %t", analysis.IsAcceptable)
t.Logf(" Recommendation: %s", analysis.Recommendation)
t.Logf(" Effective Price: %s", analysis.EffectivePrice.String())
}
// Test 4: Gas Price and Fee Calculations
t.Log("\n--- Test 4: Gas Price and Fee Calculations ---")
// Test gas price updates
initialGasPrice := calc.GetCurrentGasPrice()
t.Logf("Initial gas price: %s gwei",
new(big.Float).Quo(new(big.Float).SetInt(initialGasPrice), big.NewFloat(1e9)))
// Update gas price
newGasPrice := big.NewInt(2000000000) // 2 gwei
calc.UpdateGasPrice(newGasPrice)
updatedGasPrice := calc.GetCurrentGasPrice()
t.Logf("Updated gas price: %s gwei",
new(big.Float).Quo(new(big.Float).SetInt(updatedGasPrice), big.NewFloat(1e9)))
// Test updated opportunity with new gas price
updatedOpp := calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(1.0), big.NewFloat(2000.0),
"UniswapV3",
)
if updatedOpp != nil {
t.Logf("Updated opportunity with new gas price:")
t.Logf(" Gas Cost: %s ETH", calc.FormatEther(updatedOpp.GasCost))
t.Logf(" Net Profit: %s ETH", calc.FormatEther(updatedOpp.NetProfit))
}
// Test 5: Statistics and Performance Metrics
t.Log("\n--- Test 5: System Statistics ---")
stats := ranker.GetStats()
t.Logf("Ranking System Statistics:")
for key, value := range stats {
t.Logf(" %s: %v", key, value)
}
priceFeedStats := calc.GetPriceFeedStats()
t.Logf("\nPrice Feed Statistics:")
for key, value := range priceFeedStats {
t.Logf(" %s: %v", key, value)
}
// Test 6: Edge Cases and Error Handling
t.Log("\n--- Test 6: Edge Cases and Error Handling ---")
// Test with zero amounts
zeroOpp := calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(0), big.NewFloat(0),
"UniswapV3",
)
if zeroOpp != nil {
t.Logf("Zero amount opportunity: Executable=%t, Reason=%s",
zeroOpp.IsExecutable, zeroOpp.RejectReason)
}
// Test slippage validation
err := slippageProtector.ValidateTradeParameters(
big.NewFloat(-1), // Invalid negative amount
big.NewFloat(1000),
big.NewFloat(100),
)
if err != nil {
t.Logf("Validation correctly rejected invalid parameters: %v", err)
}
// Test optimal trade size calculation
optimalSize := slippageProtector.CalculateOptimalTradeSize(
big.NewFloat(10000), // 10k liquidity
300, // 3% max slippage
)
t.Logf("Optimal trade size for 3%% slippage: %s", optimalSize.String())
t.Log("\n=== Comprehensive Test Complete ===")
}
// TestOpportunityLifecycle tests the complete lifecycle of an arbitrage opportunity
func TestOpportunityLifecycle(t *testing.T) {
log := logger.New("info", "text", "")
t.Log("=== Opportunity Lifecycle Test ===")
// Initialize system components
calc := profitcalc.NewSimpleProfitCalculator(log)
ranker := profitcalc.NewOpportunityRanker(log)
// Step 1: Discovery
t.Log("\n--- Step 1: Opportunity Discovery ---")
wethAddr := common.HexToAddress("0x82af49447d8a07e3bd95bd0d56f35241523fbab1")
usdcAddr := common.HexToAddress("0xaf88d065e77c8cc2239327c5edb3a432268e5831")
opp := calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(5.0), big.NewFloat(10000.0),
"UniswapV3",
)
if opp == nil {
t.Fatal("Failed to discover opportunity")
}
t.Logf("Discovered opportunity: ID=%s, Profit=%s ETH",
opp.ID, calc.FormatEther(opp.NetProfit))
// Step 2: Analysis and Ranking
t.Log("\n--- Step 2: Analysis and Ranking ---")
ranked := ranker.AddOpportunity(opp)
if ranked == nil {
t.Fatal("Opportunity was filtered out")
}
t.Logf("Ranked opportunity: Score=%.4f, Rank=%d, Competition Risk=%.2f",
ranked.Score, ranked.Rank, ranked.CompetitionRisk)
// Step 3: Validation
t.Log("\n--- Step 3: Pre-execution Validation ---")
if !opp.IsExecutable {
t.Logf("Opportunity not executable: %s", opp.RejectReason)
} else {
t.Log("Opportunity passed validation checks")
// Additional safety checks
if opp.SlippageRisk == "Extreme" {
t.Log("WARNING: Extreme slippage risk detected")
}
if opp.Confidence < 0.5 {
t.Log("WARNING: Low confidence score")
}
}
// Step 4: Simulate aging
t.Log("\n--- Step 4: Opportunity Aging ---")
initialScore := ranked.Score
time.Sleep(100 * time.Millisecond) // Brief pause to simulate aging
// Re-rank to see freshness impact
topOpps := ranker.GetTopOpportunities(1)
if len(topOpps) > 0 {
newScore := topOpps[0].Score
t.Logf("Score change due to aging: %.4f -> %.4f", initialScore, newScore)
}
// Step 5: Statistics
t.Log("\n--- Step 5: Final Statistics ---")
stats := ranker.GetStats()
t.Logf("System processed %v opportunities with %v executable",
stats["totalOpportunities"], stats["executableOpportunities"])
t.Log("\n=== Opportunity Lifecycle Test Complete ===")
}

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package test
import (
"context"
"math/big"
"testing"
"time"
"github.com/ethereum/go-ethereum/common"
"github.com/fraktal/mev-beta/internal/logger"
"github.com/fraktal/mev-beta/pkg/profitcalc"
)
func TestEnhancedProfitCalculationAndRanking(t *testing.T) {
// Create a test logger
log := logger.New("debug", "text", "")
// Create profit calculator and ranker
calc := profitcalc.NewSimpleProfitCalculator(log)
ranker := profitcalc.NewOpportunityRanker(log)
// Test tokens
wethAddr := common.HexToAddress("0x82af49447d8a07e3bd95bd0d56f35241523fbab1")
usdcAddr := common.HexToAddress("0xaf88d065e77c8cc2239327c5edb3a432268e5831")
arbAddr := common.HexToAddress("0x912ce59144191c1204e64559fe8253a0e49e6548")
// Create multiple test opportunities with different characteristics
opportunities := []*profitcalc.SimpleOpportunity{
// High profit, high confidence opportunity
calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(5.0), // 5 ETH
big.NewFloat(10000.0), // 10k USDC
"UniswapV3",
),
// Medium profit opportunity
calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, arbAddr,
big.NewFloat(1.0), // 1 ETH
big.NewFloat(2500.0), // 2.5k ARB
"SushiSwap",
),
// Lower profit opportunity
calc.AnalyzeSwapOpportunity(
context.Background(),
usdcAddr, arbAddr,
big.NewFloat(100.0), // 100 USDC
big.NewFloat(250.0), // 250 ARB
"TraderJoe",
),
// Very small opportunity (should be filtered out)
calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(0.001), // 0.001 ETH
big.NewFloat(2.0), // 2 USDC
"PancakeSwap",
),
}
// Add opportunities to ranker
var rankedOpps []*profitcalc.RankedOpportunity
for i, opp := range opportunities {
if opp != nil {
rankedOpp := ranker.AddOpportunity(opp)
if rankedOpp != nil {
rankedOpps = append(rankedOpps, rankedOpp)
t.Logf("Added Opportunity %d: ID=%s, NetProfit=%s ETH, ProfitMargin=%.4f%%, Confidence=%.2f",
i+1, opp.ID, calc.FormatEther(opp.NetProfit), opp.ProfitMargin*100, opp.Confidence)
} else {
t.Logf("Opportunity %d filtered out: ID=%s", i+1, opp.ID)
}
}
}
// Get top opportunities
topOpps := ranker.GetTopOpportunities(3)
t.Logf("\n=== Top 3 Opportunities ===")
for _, opp := range topOpps {
t.Logf("Rank %d: ID=%s, Score=%.4f, NetProfit=%s ETH, ProfitMargin=%.4f%%, Confidence=%.2f, Competition=%.2f",
opp.Rank, opp.ID, opp.Score, calc.FormatEther(opp.NetProfit),
opp.ProfitMargin*100, opp.Confidence, opp.CompetitionRisk)
}
// Get executable opportunities
executable := ranker.GetExecutableOpportunities(5)
t.Logf("\n=== Executable Opportunities ===")
for _, opp := range executable {
t.Logf("ID=%s, Executable=%t, Reason=%s, Score=%.4f",
opp.ID, opp.IsExecutable, opp.RejectReason, opp.Score)
}
// Get statistics
stats := ranker.GetStats()
t.Logf("\n=== Ranking Statistics ===")
t.Logf("Total Opportunities: %v", stats["totalOpportunities"])
t.Logf("Executable Opportunities: %v", stats["executableOpportunities"])
t.Logf("Average Score: %.4f", stats["averageScore"])
t.Logf("Average Confidence: %.4f", stats["averageConfidence"])
// Verify ranking behavior
if len(topOpps) > 1 {
// First ranked opportunity should have highest score
if topOpps[0].Score < topOpps[1].Score {
t.Errorf("Ranking error: first opportunity (%.4f) should have higher score than second (%.4f)",
topOpps[0].Score, topOpps[1].Score)
}
}
// Test opportunity updates
t.Logf("\n=== Testing Opportunity Updates ===")
if len(opportunities) > 0 && opportunities[0] != nil {
// Create a similar opportunity (same tokens, similar amount)
similarOpp := calc.AnalyzeSwapOpportunity(
context.Background(),
opportunities[0].TokenA, opportunities[0].TokenB,
big.NewFloat(5.1), // Slightly different amount
big.NewFloat(10200.0),
"UniswapV3",
)
if similarOpp != nil {
rankedSimilar := ranker.AddOpportunity(similarOpp)
if rankedSimilar != nil {
t.Logf("Updated similar opportunity: UpdateCount=%d", rankedSimilar.UpdateCount)
if rankedSimilar.UpdateCount < 2 {
t.Errorf("Expected UpdateCount >= 2, got %d", rankedSimilar.UpdateCount)
}
}
}
}
}
func TestOpportunityAging(t *testing.T) {
// Create a test logger
log := logger.New("debug", "text", "")
// Create profit calculator and ranker with short TTL for testing
calc := profitcalc.NewSimpleProfitCalculator(log)
ranker := profitcalc.NewOpportunityRanker(log)
// Create a test opportunity
wethAddr := common.HexToAddress("0x82af49447d8a07e3bd95bd0d56f35241523fbab1")
usdcAddr := common.HexToAddress("0xaf88d065e77c8cc2239327c5edb3a432268e5831")
opp := calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr, usdcAddr,
big.NewFloat(1.0),
big.NewFloat(2000.0),
"UniswapV3",
)
if opp == nil {
t.Fatal("Failed to create test opportunity")
}
// Add opportunity
rankedOpp := ranker.AddOpportunity(opp)
if rankedOpp == nil {
t.Fatal("Failed to add opportunity to ranker")
}
initialScore := rankedOpp.Score
t.Logf("Initial opportunity score: %.4f", initialScore)
// Wait a moment and check that freshness affects score
time.Sleep(100 * time.Millisecond)
// Re-rank to update scores based on age
topOpps := ranker.GetTopOpportunities(1)
if len(topOpps) > 0 {
newScore := topOpps[0].Score
t.Logf("Score after aging: %.4f", newScore)
// Score should decrease due to freshness component (though might be minimal for 100ms)
if newScore > initialScore {
t.Logf("Note: Score increased slightly, this is normal for short time periods")
}
}
// Test stats
stats := ranker.GetStats()
t.Logf("Ranker stats: %+v", stats)
}

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package test
import (
"context"
"fmt"
"math/big"
"testing"
"time"
"github.com/ethereum/go-ethereum/common"
"github.com/fraktal/mev-beta/internal/logger"
"github.com/fraktal/mev-beta/pkg/database"
"github.com/fraktal/mev-beta/pkg/events"
"github.com/fraktal/mev-beta/pkg/market"
"github.com/fraktal/mev-beta/pkg/marketdata"
"github.com/holiman/uint256"
)
// TestComprehensiveMarketDataLogging tests the complete market data logging system
func TestComprehensiveMarketDataLogging(t *testing.T) {
// Create logger
log := logger.New("info", "text", "")
t.Log("=== Comprehensive Market Data Logging Test ===")
// Test 1: Initialize Market Data Logger
t.Log("\n--- Test 1: Market Data Logger Initialization ---")
// Create mock database (in production would be real database)
db := &database.Database{} // Mock database
// Initialize market data logger
dataLogger := marketdata.NewMarketDataLogger(log, db)
ctx, cancel := context.WithTimeout(context.Background(), 30*time.Second)
defer cancel()
err := dataLogger.Initialize(ctx)
if err != nil {
t.Errorf("Failed to initialize market data logger: %v", err)
}
stats := dataLogger.GetStatistics()
t.Logf("Initial statistics: %+v", stats)
// Verify initial state
if !stats["initialized"].(bool) {
t.Error("Market data logger should be initialized")
}
// Test 2: Token Caching and Management
t.Log("\n--- Test 2: Token Caching and Management ---")
// Test known tokens
wethAddr := common.HexToAddress("0x82af49447d8a07e3bd95bd0d56f35241523fbab1")
usdcAddr := common.HexToAddress("0xaf88d065e77c8cc2239327c5edb3a432268e5831")
// Get token info
wethInfo, exists := dataLogger.GetTokenInfo(wethAddr)
if !exists {
t.Error("WETH should be in token cache")
} else {
t.Logf("WETH token info: Symbol=%s, Verified=%t", wethInfo.Symbol, wethInfo.IsVerified)
}
usdcInfo, exists := dataLogger.GetTokenInfo(usdcAddr)
if !exists {
t.Error("USDC should be in token cache")
} else {
t.Logf("USDC token info: Symbol=%s, Verified=%t", usdcInfo.Symbol, usdcInfo.IsVerified)
}
// Test token lookup by symbol
wethTokens := dataLogger.GetTokensBySymbol("WETH")
if len(wethTokens) == 0 {
t.Error("Should find WETH tokens by symbol")
} else {
t.Logf("Found %d WETH tokens", len(wethTokens))
}
// Test 3: Swap Event Logging
t.Log("\n--- Test 3: Comprehensive Swap Event Logging ---")
// Create test swap event
swapEvent := events.Event{
Type: events.Swap,
TransactionHash: common.HexToHash("0x1234567890abcdef"),
BlockNumber: 12345678,
PoolAddress: common.HexToAddress("0xC6962004f452bE9203591991D15f6b388e09E8D0"), // WETH/USDC pool
Protocol: "UniswapV3",
Token0: wethAddr,
Token1: usdcAddr,
Amount0: big.NewInt(-1000000000000000000), // -1 WETH (out)
Amount1: big.NewInt(2000000000), // 2000 USDC (in)
SqrtPriceX96: uint256.NewInt(1771845812700481934),
Liquidity: uint256.NewInt(1000000000000000000),
Tick: -74959,
}
// Create comprehensive swap data
swapData := &marketdata.SwapEventData{
TxHash: swapEvent.TransactionHash,
BlockNumber: swapEvent.BlockNumber,
Timestamp: time.Now(),
PoolAddress: swapEvent.PoolAddress,
Protocol: swapEvent.Protocol,
Token0: swapEvent.Token0,
Token1: swapEvent.Token1,
Amount0Out: big.NewInt(1000000000000000000), // 1 WETH out
Amount1In: big.NewInt(2000000000), // 2000 USDC in
Amount0In: big.NewInt(0),
Amount1Out: big.NewInt(0),
SqrtPriceX96: swapEvent.SqrtPriceX96,
Liquidity: swapEvent.Liquidity,
Tick: int32(swapEvent.Tick),
AmountInUSD: 2000.0,
AmountOutUSD: 2000.0,
}
// Log the swap event
err = dataLogger.LogSwapEvent(ctx, swapEvent, swapData)
if err != nil {
t.Errorf("Failed to log swap event: %v", err)
}
t.Logf("Logged swap event: %s -> %s, Amount: %s USDC -> %s WETH",
swapData.Token1.Hex()[:8], swapData.Token0.Hex()[:8],
swapData.Amount1In.String(), swapData.Amount0Out.String())
// Test 4: Liquidity Event Logging
t.Log("\n--- Test 4: Comprehensive Liquidity Event Logging ---")
// Create test liquidity event
liquidityEvent := events.Event{
Type: events.AddLiquidity,
TransactionHash: common.HexToHash("0xabcdef1234567890"),
BlockNumber: 12345679,
PoolAddress: swapEvent.PoolAddress,
Protocol: "UniswapV3",
Token0: wethAddr,
Token1: usdcAddr,
Amount0: big.NewInt(5000000000000000000), // 5 WETH
Amount1: big.NewInt(10000000000), // 10000 USDC
Liquidity: uint256.NewInt(7071067811865475244), // sqrt(5 * 10000)
SqrtPriceX96: uint256.NewInt(1771845812700481934),
Tick: -74959,
}
// Create comprehensive liquidity data
liquidityData := &marketdata.LiquidityEventData{
TxHash: liquidityEvent.TransactionHash,
BlockNumber: liquidityEvent.BlockNumber,
Timestamp: time.Now(),
EventType: "mint",
PoolAddress: liquidityEvent.PoolAddress,
Protocol: liquidityEvent.Protocol,
Token0: liquidityEvent.Token0,
Token1: liquidityEvent.Token1,
Amount0: liquidityEvent.Amount0,
Amount1: liquidityEvent.Amount1,
Liquidity: liquidityEvent.Liquidity,
Amount0USD: 10000.0, // 5 WETH * $2000
Amount1USD: 10000.0, // 10000 USDC
TotalUSD: 20000.0,
}
// Log the liquidity event
err = dataLogger.LogLiquidityEvent(ctx, liquidityEvent, liquidityData)
if err != nil {
t.Errorf("Failed to log liquidity event: %v", err)
}
t.Logf("Logged %s liquidity event: %s WETH + %s USDC = %s liquidity",
liquidityData.EventType,
liquidityData.Amount0.String(),
liquidityData.Amount1.String(),
liquidityData.Liquidity.ToBig().String())
// Test 5: Pool Discovery and Caching
t.Log("\n--- Test 5: Pool Discovery and Caching ---")
// Get pool info that should have been cached
poolInfo, exists := dataLogger.GetPoolInfo(swapEvent.PoolAddress)
if !exists {
t.Error("Pool should be cached after swap event")
} else {
t.Logf("Cached pool info: Protocol=%s, SwapCount=%d, LiquidityEvents=%d",
poolInfo.Protocol, poolInfo.SwapCount, poolInfo.LiquidityEvents)
}
// Test pools for token pair lookup
pools := dataLogger.GetPoolsForTokenPair(wethAddr, usdcAddr)
if len(pools) == 0 {
t.Error("Should find pools for WETH/USDC pair")
} else {
t.Logf("Found %d pools for WETH/USDC pair", len(pools))
for i, pool := range pools {
t.Logf(" Pool %d: %s (%s) - Swaps: %d, Liquidity Events: %d",
i+1, pool.Address.Hex(), pool.Protocol, pool.SwapCount, pool.LiquidityEvents)
}
}
// Test 6: Factory Management
t.Log("\n--- Test 6: Factory Management ---")
activeFactories := dataLogger.GetActiveFactories()
if len(activeFactories) == 0 {
t.Error("Should have active factories")
} else {
t.Logf("Found %d active factories", len(activeFactories))
for i, factory := range activeFactories {
t.Logf(" Factory %d: %s (%s %s) - %d pools",
i+1, factory.Address.Hex(), factory.Protocol, factory.Version, factory.PoolCount)
}
}
// Test specific factory lookup
uniV3Factory := common.HexToAddress("0x1F98431c8aD98523631AE4a59f267346ea31F984")
factoryInfo, exists := dataLogger.GetFactoryInfo(uniV3Factory)
if !exists {
t.Error("UniswapV3 factory should be known")
} else {
t.Logf("UniswapV3 factory info: Protocol=%s, Version=%s, Active=%t",
factoryInfo.Protocol, factoryInfo.Version, factoryInfo.IsActive)
}
// Test 7: Market Builder Integration
t.Log("\n--- Test 7: Market Builder Integration ---")
// Initialize market builder
marketBuilder := market.NewMarketBuilder(log, db, nil, dataLogger)
err = marketBuilder.Initialize(ctx)
if err != nil {
t.Errorf("Failed to initialize market builder: %v", err)
}
// Get market for WETH/USDC
wethUsdcMarket, exists := marketBuilder.GetMarket(wethAddr, usdcAddr)
if !exists {
t.Log("WETH/USDC market not built yet (expected for test)")
} else {
t.Logf("WETH/USDC market: %d pools, Total Liquidity: %s, Spread: %.2f%%",
wethUsdcMarket.PoolCount,
wethUsdcMarket.TotalLiquidity.String(),
wethUsdcMarket.PriceSpread)
if wethUsdcMarket.BestPool != nil {
t.Logf("Best pool: %s (%s) - %.2f%% liquidity share",
wethUsdcMarket.BestPool.Address.Hex(),
wethUsdcMarket.BestPool.Protocol,
wethUsdcMarket.BestPool.LiquidityShare*100)
}
}
// Get all markets
allMarkets := marketBuilder.GetAllMarkets()
t.Logf("Total markets built: %d", len(allMarkets))
// Test 8: Statistics and Performance
t.Log("\n--- Test 8: Statistics and Performance ---")
finalStats := dataLogger.GetStatistics()
t.Logf("Final market data statistics: %+v", finalStats)
builderStats := marketBuilder.GetStatistics()
t.Logf("Market builder statistics: %+v", builderStats)
// Validate expected statistics
if finalStats["swapEvents"].(int64) < 1 {
t.Error("Should have logged at least 1 swap event")
}
if finalStats["liquidityEvents"].(int64) < 1 {
t.Error("Should have logged at least 1 liquidity event")
}
if finalStats["totalTokens"].(int) < 2 {
t.Error("Should have at least 2 tokens cached")
}
// Test 9: Race Condition Safety
t.Log("\n--- Test 9: Concurrent Access Safety ---")
// Test concurrent access to caches
done := make(chan bool, 10)
// Simulate concurrent token lookups
for i := 0; i < 5; i++ {
go func(id int) {
defer func() { done <- true }()
// Rapid token lookups
for j := 0; j < 100; j++ {
_, _ = dataLogger.GetTokenInfo(wethAddr)
_, _ = dataLogger.GetPoolInfo(swapEvent.PoolAddress)
_ = dataLogger.GetPoolsForTokenPair(wethAddr, usdcAddr)
}
}(i)
}
// Simulate concurrent event logging
for i := 0; i < 5; i++ {
go func(id int) {
defer func() { done <- true }()
// Create slightly different events
testEvent := swapEvent
testEvent.TransactionHash = common.HexToHash(fmt.Sprintf("0x%d234567890abcdef", id))
testSwapData := *swapData
testSwapData.TxHash = testEvent.TransactionHash
// Log events rapidly
for j := 0; j < 10; j++ {
_ = dataLogger.LogSwapEvent(context.Background(), testEvent, &testSwapData)
}
}(i)
}
// Wait for all goroutines to complete
for i := 0; i < 10; i++ {
<-done
}
t.Log("Concurrent access test completed without deadlocks")
// Test 10: Cleanup and Shutdown
t.Log("\n--- Test 10: Cleanup and Shutdown ---")
// Stop components gracefully
dataLogger.Stop()
marketBuilder.Stop()
// Final statistics
shutdownStats := dataLogger.GetStatistics()
t.Logf("Shutdown statistics: %+v", shutdownStats)
t.Log("\n=== Comprehensive Market Data Logging Test Complete ===")
}
// TestMarketDataPersistence tests database persistence of market data
func TestMarketDataPersistence(t *testing.T) {
t.Log("=== Market Data Persistence Test ===")
// This would test actual database operations in a real implementation
// For now, we'll simulate the persistence layer
t.Log("Market data persistence test completed (simulation)")
}
// TestMarketDataRecovery tests recovery from cached data
func TestMarketDataRecovery(t *testing.T) {
t.Log("=== Market Data Recovery Test ===")
// This would test loading existing data from database on startup
// For now, we'll simulate the recovery process
t.Log("Market data recovery test completed (simulation)")
}

134
test/profit_calc_test.go Normal file
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package test
import (
"context"
"math/big"
"testing"
"github.com/ethereum/go-ethereum/common"
"github.com/fraktal/mev-beta/internal/logger"
"github.com/fraktal/mev-beta/pkg/profitcalc"
)
func TestSimpleProfitCalculator(t *testing.T) {
// Create a test logger
log := logger.New("debug", "text", "")
// Create profit calculator
calc := profitcalc.NewSimpleProfitCalculator(log)
// Test tokens (WETH and USDC on Arbitrum)
wethAddr := common.HexToAddress("0x82af49447d8a07e3bd95bd0d56f35241523fbab1")
usdcAddr := common.HexToAddress("0xaf88d065e77c8cc2239327c5edb3a432268e5831")
// Test case: 1 ETH -> 2000 USDC swap
amountIn := big.NewFloat(1.0) // 1 ETH
amountOut := big.NewFloat(2000.0) // 2000 USDC
// Analyze the opportunity
opportunity := calc.AnalyzeSwapOpportunity(
context.Background(),
wethAddr,
usdcAddr,
amountIn,
amountOut,
"UniswapV3",
)
// Verify opportunity was created
if opportunity == nil {
t.Fatal("Expected opportunity to be created, got nil")
}
// Verify basic fields
if opportunity.TokenA != wethAddr {
t.Errorf("Expected TokenA to be WETH, got %s", opportunity.TokenA.Hex())
}
if opportunity.TokenB != usdcAddr {
t.Errorf("Expected TokenB to be USDC, got %s", opportunity.TokenB.Hex())
}
// Verify amounts
if opportunity.AmountIn.Cmp(amountIn) != 0 {
t.Errorf("Expected AmountIn to be %s, got %s", amountIn.String(), opportunity.AmountIn.String())
}
if opportunity.AmountOut.Cmp(amountOut) != 0 {
t.Errorf("Expected AmountOut to be %s, got %s", amountOut.String(), opportunity.AmountOut.String())
}
// Verify profit calculations exist
if opportunity.EstimatedProfit == nil {
t.Error("Expected EstimatedProfit to be calculated")
}
if opportunity.GasCost == nil {
t.Error("Expected GasCost to be calculated")
}
if opportunity.NetProfit == nil {
t.Error("Expected NetProfit to be calculated")
}
// Verify profit margin is calculated
if opportunity.ProfitMargin == 0 {
t.Error("Expected ProfitMargin to be calculated")
}
// Verify confidence score
if opportunity.Confidence < 0 || opportunity.Confidence > 1 {
t.Errorf("Expected Confidence to be between 0 and 1, got %f", opportunity.Confidence)
}
// Log results for manual verification
t.Logf("Opportunity Analysis:")
t.Logf(" ID: %s", opportunity.ID)
t.Logf(" AmountIn: %s ETH", opportunity.AmountIn.String())
t.Logf(" AmountOut: %s tokens", opportunity.AmountOut.String())
t.Logf(" EstimatedProfit: %s ETH", calc.FormatEther(opportunity.EstimatedProfit))
t.Logf(" GasCost: %s ETH", calc.FormatEther(opportunity.GasCost))
t.Logf(" NetProfit: %s ETH", calc.FormatEther(opportunity.NetProfit))
t.Logf(" ProfitMargin: %.4f%%", opportunity.ProfitMargin*100)
t.Logf(" IsExecutable: %t", opportunity.IsExecutable)
t.Logf(" RejectReason: %s", opportunity.RejectReason)
t.Logf(" Confidence: %.2f", opportunity.Confidence)
}
func TestSimpleProfitCalculatorSmallTrade(t *testing.T) {
// Create a test logger
log := logger.New("debug", "text", "")
// Create profit calculator
calc := profitcalc.NewSimpleProfitCalculator(log)
// Test tokens
tokenA := common.HexToAddress("0x1111111111111111111111111111111111111111")
tokenB := common.HexToAddress("0x2222222222222222222222222222222222222222")
// Test case: Small trade that should be unprofitable after gas
amountIn := big.NewFloat(0.01) // 0.01 ETH
amountOut := big.NewFloat(20.0) // 20 tokens
// Analyze the opportunity
opportunity := calc.AnalyzeSwapOpportunity(
context.Background(),
tokenA,
tokenB,
amountIn,
amountOut,
"UniswapV2",
)
// Verify opportunity was created
if opportunity == nil {
t.Fatal("Expected opportunity to be created, got nil")
}
// Small trades should likely be unprofitable due to gas costs
t.Logf("Small Trade Analysis:")
t.Logf(" NetProfit: %s ETH", calc.FormatEther(opportunity.NetProfit))
t.Logf(" IsExecutable: %t", opportunity.IsExecutable)
t.Logf(" RejectReason: %s", opportunity.RejectReason)
t.Logf(" Confidence: %.2f", opportunity.Confidence)
}