Fix build and code structure improvements. New but essential UI functionality. CI improvements. Documentation improvements. AI module improvements.

This commit is contained in:
StellaOps Bot
2025-12-26 21:54:17 +02:00
parent 335ff7da16
commit c2b9cd8d1f
3717 changed files with 264714 additions and 48202 deletions

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// -----------------------------------------------------------------------------
// AtLeastOnceDeliveryTests.cs
// Sprint: SPRINT_5100_0010_0003 - Router + Messaging Test Implementation
// Task: MESSAGING-5100-009 - At-least-once delivery with consumer idempotency
// Description: Integration tests verifying at-least-once delivery semantics:
// - Messages are never lost (guaranteed delivery)
// - Consumer idempotency correctly handles duplicate deliveries
// - Lease expiration triggers redelivery
// - Simulated failures result in message redelivery
// -----------------------------------------------------------------------------
using FluentAssertions;
using StellaOps.Messaging;
using StellaOps.Messaging.Abstractions;
using StellaOps.Messaging.Transport.Valkey.Tests.Fixtures;
using Xunit;
using Xunit.Abstractions;
namespace StellaOps.Messaging.Transport.Valkey.Tests;
/// <summary>
/// Tests for at-least-once delivery semantics with consumer idempotency.
///
/// At-least-once delivery guarantees:
/// 1. Every message sent is delivered at least once
/// 2. Messages may be delivered multiple times (redelivery on failure)
/// 3. Consumer idempotency handles duplicate deliveries
/// 4. No message is ever lost, even under failure conditions
/// </summary>
[Collection(ValkeyIntegrationTestCollection.Name)]
public sealed class AtLeastOnceDeliveryTests : IAsyncLifetime
{
private readonly ValkeyContainerFixture _fixture;
private readonly ITestOutputHelper _output;
private ValkeyConnectionFactory? _connectionFactory;
private ValkeyIdempotencyStore? _idempotencyStore;
public AtLeastOnceDeliveryTests(ValkeyContainerFixture fixture, ITestOutputHelper output)
{
_fixture = fixture;
_output = output;
}
public Task InitializeAsync()
{
_connectionFactory = _fixture.CreateConnectionFactory();
_idempotencyStore = new ValkeyIdempotencyStore(
_connectionFactory,
$"test-consumer-{Guid.NewGuid():N}",
null);
return Task.CompletedTask;
}
public async Task DisposeAsync()
{
if (_connectionFactory is not null)
{
await _connectionFactory.DisposeAsync();
}
}
#region At-Least-Once Delivery Guarantee Tests
[ValkeyIntegrationFact]
public async Task AtLeastOnce_MessageSent_IsDeliveredAtLeastOnce()
{
// Arrange - Producer sends message
var queue = CreateQueue<TestMessage>();
var messageId = Guid.NewGuid();
var message = new TestMessage
{
Id = messageId,
Content = "At-least-once test message"
};
// Act - Send message
var enqueueResult = await queue.EnqueueAsync(message);
enqueueResult.Success.Should().BeTrue("message should be accepted by the queue");
// Act - Consumer receives message
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert - Message is delivered
leases.Should().HaveCount(1, "message must be delivered at least once");
leases[0].Message.Id.Should().Be(messageId);
leases[0].Message.Content.Should().Be("At-least-once test message");
await leases[0].AcknowledgeAsync();
_output.WriteLine($"Message {messageId} delivered successfully");
}
[ValkeyIntegrationFact]
public async Task AtLeastOnce_UnacknowledgedLease_MessageRedelivered()
{
// Arrange - Create queue with short lease duration
var queueOptions = _fixture.CreateQueueOptions();
queueOptions.DefaultLeaseDuration = TimeSpan.FromMilliseconds(200);
var queue = CreateQueue<TestMessage>(queueOptions);
var messageId = Guid.NewGuid();
await queue.EnqueueAsync(new TestMessage { Id = messageId, Content = "Redelivery test" });
// Act - Lease message but don't acknowledge (simulating consumer crash)
var firstLease = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
firstLease.Should().HaveCount(1);
firstLease[0].Message.Id.Should().Be(messageId);
// Don't acknowledge - simulate crash
_output.WriteLine("Simulating consumer crash (not acknowledging message)");
// Wait for lease to expire
await Task.Delay(500);
// Act - Claim expired message (automatic redelivery)
var redelivered = await queue.ClaimExpiredAsync(new ClaimRequest
{
BatchSize = 10,
MinIdleTime = TimeSpan.FromMilliseconds(200),
MinDeliveryAttempts = 1
});
// Assert - Message is redelivered
redelivered.Should().HaveCount(1, "message must be redelivered after lease expiration");
redelivered[0].Message.Id.Should().Be(messageId);
redelivered[0].Attempt.Should().BeGreaterThan(1, "this should be a redelivery");
await redelivered[0].AcknowledgeAsync();
_output.WriteLine($"Message {messageId} successfully redelivered on attempt {redelivered[0].Attempt}");
}
[ValkeyIntegrationFact]
public async Task AtLeastOnce_MultipleMessages_AllDelivered()
{
// Arrange
var queue = CreateQueue<TestMessage>();
const int messageCount = 100;
var sentIds = new HashSet<Guid>();
// Act - Send multiple messages
for (int i = 0; i < messageCount; i++)
{
var id = Guid.NewGuid();
sentIds.Add(id);
await queue.EnqueueAsync(new TestMessage { Id = id, Content = $"Message-{i}" });
}
// Act - Receive all messages
var receivedIds = new HashSet<Guid>();
int remaining = messageCount;
while (remaining > 0)
{
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 20 });
foreach (var lease in leases)
{
receivedIds.Add(lease.Message.Id);
await lease.AcknowledgeAsync();
}
remaining -= leases.Count;
}
// Assert - All messages delivered
receivedIds.Should().BeEquivalentTo(sentIds, "all sent messages must be delivered");
_output.WriteLine($"All {messageCount} messages delivered successfully");
}
[ValkeyIntegrationFact]
public async Task AtLeastOnce_RetryAfterNack_MessageRedelivered()
{
// Arrange
var queueOptions = _fixture.CreateQueueOptions();
queueOptions.RetryInitialBackoff = TimeSpan.Zero; // Immediate retry for test speed
var queue = CreateQueue<TestMessage>(queueOptions);
var messageId = Guid.NewGuid();
await queue.EnqueueAsync(new TestMessage { Id = messageId, Content = "Retry test" });
// Act - First delivery, simulate processing failure with retry
var firstLease = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
firstLease.Should().HaveCount(1);
firstLease[0].Attempt.Should().Be(1);
// Nack for retry
await firstLease[0].ReleaseAsync(ReleaseDisposition.Retry);
_output.WriteLine("Message nacked for retry");
// Brief delay for retry processing
await Task.Delay(100);
// Act - Second delivery after retry
var secondLease = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert - Message is redelivered
secondLease.Should().HaveCount(1, "message must be redelivered after nack");
secondLease[0].Message.Id.Should().Be(messageId);
secondLease[0].Attempt.Should().Be(2, "this should be attempt 2");
await secondLease[0].AcknowledgeAsync();
_output.WriteLine($"Message {messageId} successfully processed on attempt 2");
}
#endregion
#region Consumer Idempotency Tests
[ValkeyIntegrationFact]
public async Task ConsumerIdempotency_DuplicateProcessing_DetectedAndSkipped()
{
// Arrange - Create a consumer with idempotency tracking
var queue = CreateQueue<TestMessage>();
var processedMessageIds = new HashSet<Guid>();
var processingCount = new Dictionary<Guid, int>();
var messageId = Guid.NewGuid();
await queue.EnqueueAsync(new TestMessage { Id = messageId, Content = "Idempotency test" });
// Act - Simulate receiving the message multiple times
for (int delivery = 1; delivery <= 3; delivery++)
{
// Simulate message delivery (could be redelivery)
var idempotencyKey = $"consumer-process:{messageId}";
var claimResult = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
messageId.ToString(),
TimeSpan.FromMinutes(5));
if (claimResult.IsFirstClaim)
{
// First time processing this message
processedMessageIds.Add(messageId);
processingCount[messageId] = 1;
_output.WriteLine($"Delivery {delivery}: First processing of message {messageId}");
}
else
{
// Duplicate - skip processing
processingCount[messageId] = processingCount.GetValueOrDefault(messageId) + 1;
_output.WriteLine($"Delivery {delivery}: Duplicate detected, skipping message {messageId}");
}
}
// Assert - Message processed exactly once despite multiple deliveries
processedMessageIds.Should().HaveCount(1);
processingCount[messageId].Should().BeGreaterThan(1, "we simulated multiple deliveries");
// Cleanup
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
if (leases.Count > 0)
{
await leases[0].AcknowledgeAsync();
}
}
[ValkeyIntegrationFact]
public async Task ConsumerIdempotency_ConcurrentDuplicates_OnlyOneProcessed()
{
// Arrange
var messageId = Guid.NewGuid();
var processedCount = 0;
var duplicateCount = 0;
var lockObject = new object();
// Simulate 10 concurrent consumers trying to process the same message
var tasks = Enumerable.Range(1, 10).Select(async consumerId =>
{
var idempotencyKey = $"concurrent-test:{messageId}";
var claimResult = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
$"consumer-{consumerId}",
TimeSpan.FromMinutes(5));
lock (lockObject)
{
if (claimResult.IsFirstClaim)
{
processedCount++;
_output.WriteLine($"Consumer {consumerId}: Processing message (first claim)");
}
else
{
duplicateCount++;
_output.WriteLine($"Consumer {consumerId}: Duplicate detected, existing value: {claimResult.ExistingValue}");
}
}
});
// Act
await Task.WhenAll(tasks);
// Assert - Exactly one consumer processed the message
processedCount.Should().Be(1, "only one consumer should process the message");
duplicateCount.Should().Be(9, "9 consumers should detect duplicate");
_output.WriteLine($"Processed: {processedCount}, Duplicates: {duplicateCount}");
}
[ValkeyIntegrationFact]
public async Task ConsumerIdempotency_IdempotencyWindowExpires_ReprocessingAllowed()
{
// Arrange
var messageId = Guid.NewGuid();
var shortWindow = TimeSpan.FromMilliseconds(200);
var idempotencyKey = $"window-test:{messageId}";
// Act - First claim
var firstClaim = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"first-processor",
shortWindow);
firstClaim.IsFirstClaim.Should().BeTrue();
_output.WriteLine("First claim successful");
// Duplicate should be detected
var duplicateClaim = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"duplicate-processor",
shortWindow);
duplicateClaim.IsDuplicate.Should().BeTrue();
_output.WriteLine("Duplicate detected as expected");
// Wait for window to expire
await Task.Delay(500);
// Act - After expiration, claim should succeed again
var afterExpiration = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"new-processor",
shortWindow);
// Assert - Reprocessing allowed after window expiration
afterExpiration.IsFirstClaim.Should().BeTrue(
"after idempotency window expires, message can be reprocessed");
_output.WriteLine("After window expiration, new claim succeeded");
}
[ValkeyIntegrationFact]
public async Task ConsumerIdempotency_DifferentMessages_IndependentProcessing()
{
// Arrange - Three different messages
var messageIds = Enumerable.Range(1, 3).Select(_ => Guid.NewGuid()).ToList();
var processedIds = new List<Guid>();
// Act - Process each message (simulating first-time delivery)
foreach (var messageId in messageIds)
{
var idempotencyKey = $"different-msg-test:{messageId}";
var claimResult = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
messageId.ToString(),
TimeSpan.FromMinutes(5));
if (claimResult.IsFirstClaim)
{
processedIds.Add(messageId);
}
}
// Assert - All different messages processed
processedIds.Should().BeEquivalentTo(messageIds);
_output.WriteLine($"All {messageIds.Count} different messages processed independently");
}
#endregion
#region End-to-End At-Least-Once with Idempotency Tests
[ValkeyIntegrationFact]
public async Task EndToEnd_AtLeastOnceWithIdempotency_NoDuplicateProcessing()
{
// Arrange
var queueOptions = _fixture.CreateQueueOptions();
queueOptions.DefaultLeaseDuration = TimeSpan.FromMilliseconds(200);
var queue = CreateQueue<TestMessage>(queueOptions);
var messageId = Guid.NewGuid();
var processedIds = new HashSet<Guid>();
var deliveryCount = 0;
await queue.EnqueueAsync(new TestMessage { Id = messageId, Content = "E2E test" });
// Act - Consumer with idempotency-aware processing
// Simulate: first delivery - lease but crash, second delivery - process successfully
// First delivery (crash simulation - don't ack)
var firstLease = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
firstLease.Should().HaveCount(1);
deliveryCount++;
// Attempt to claim for processing
var firstClaim = await _idempotencyStore!.TryClaimAsync(
$"e2e-test:{firstLease[0].Message.Id}",
firstLease[0].MessageId,
TimeSpan.FromMinutes(5));
if (firstClaim.IsFirstClaim)
{
processedIds.Add(firstLease[0].Message.Id);
}
// Simulate crash - don't acknowledge
_output.WriteLine("First delivery: Processing started but consumer crashed");
// Wait for lease expiration
await Task.Delay(500);
// Claim expired message (redelivery)
var redelivered = await queue.ClaimExpiredAsync(new ClaimRequest
{
BatchSize = 1,
MinIdleTime = TimeSpan.FromMilliseconds(200),
MinDeliveryAttempts = 1
});
if (redelivered.Count > 0)
{
deliveryCount++;
// Attempt to claim again (should be duplicate)
var secondClaim = await _idempotencyStore!.TryClaimAsync(
$"e2e-test:{redelivered[0].Message.Id}",
redelivered[0].MessageId,
TimeSpan.FromMinutes(5));
if (secondClaim.IsFirstClaim)
{
processedIds.Add(redelivered[0].Message.Id);
}
else
{
_output.WriteLine($"Second delivery: Duplicate detected, skipping processing");
}
// This time, acknowledge
await redelivered[0].AcknowledgeAsync();
_output.WriteLine("Second delivery: Message acknowledged");
}
// Assert
processedIds.Should().HaveCount(1, "message should be processed exactly once");
deliveryCount.Should().BeGreaterThan(1, "message should be delivered at least twice (crash + redelivery)");
_output.WriteLine($"Total deliveries: {deliveryCount}, Unique processing: {processedIds.Count}");
}
[ValkeyIntegrationFact]
public async Task EndToEnd_BulkMessages_AtLeastOnceWithIdempotency()
{
// Arrange
var queue = CreateQueue<TestMessage>();
const int messageCount = 50;
var processedIds = new ConcurrentHashSet<Guid>();
var deliveryAttempts = new Dictionary<Guid, int>();
// Send messages
var sentIds = new List<Guid>();
for (int i = 0; i < messageCount; i++)
{
var id = Guid.NewGuid();
sentIds.Add(id);
await queue.EnqueueAsync(new TestMessage { Id = id, Content = $"Bulk-{i}" });
}
// Act - Process all messages with idempotency
int remaining = messageCount;
while (remaining > 0)
{
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 10 });
if (leases.Count == 0) break;
foreach (var lease in leases)
{
var msgId = lease.Message.Id;
deliveryAttempts[msgId] = deliveryAttempts.GetValueOrDefault(msgId) + 1;
// Check idempotency before processing
var claim = await _idempotencyStore!.TryClaimAsync(
$"bulk-test:{msgId}",
lease.MessageId,
TimeSpan.FromMinutes(5));
if (claim.IsFirstClaim)
{
processedIds.Add(msgId);
}
await lease.AcknowledgeAsync();
}
remaining -= leases.Count;
}
// Assert - All messages processed exactly once
processedIds.Count.Should().Be(messageCount, "all messages should be processed");
sentIds.Should().BeEquivalentTo(processedIds.ToList(), "all sent messages should be processed");
_output.WriteLine($"Processed {processedIds.Count}/{messageCount} messages with idempotency");
}
#endregion
#region Edge Cases
[ValkeyIntegrationFact]
public async Task EdgeCase_IdempotencyStore_ExtendWindow()
{
// Arrange
var messageId = Guid.NewGuid();
var idempotencyKey = $"extend-test:{messageId}";
var shortWindow = TimeSpan.FromSeconds(1);
// Act - Claim with short window
var claim = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"original-value",
shortWindow);
claim.IsFirstClaim.Should().BeTrue();
// Extend the window
var extended = await _idempotencyStore!.ExtendAsync(
idempotencyKey,
TimeSpan.FromMinutes(5));
// Assert - Window extended
extended.Should().BeTrue();
// Duplicate should still be detected after original window would have expired
await Task.Delay(1500);
var afterOriginalExpiry = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"new-value",
shortWindow);
afterOriginalExpiry.IsDuplicate.Should().BeTrue(
"window was extended, so duplicate should still be detected");
_output.WriteLine("Window extension verified - duplicate detected after original expiry");
}
[ValkeyIntegrationFact]
public async Task EdgeCase_IdempotencyStore_Release()
{
// Arrange
var messageId = Guid.NewGuid();
var idempotencyKey = $"release-test:{messageId}";
// Claim the key
var firstClaim = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"first-value",
TimeSpan.FromMinutes(5));
firstClaim.IsFirstClaim.Should().BeTrue();
// Duplicate should be detected
var duplicate = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"duplicate-value",
TimeSpan.FromMinutes(5));
duplicate.IsDuplicate.Should().BeTrue();
// Act - Release the key
var released = await _idempotencyStore!.ReleaseAsync(idempotencyKey);
released.Should().BeTrue();
// Assert - After release, key can be claimed again
var afterRelease = await _idempotencyStore!.TryClaimAsync(
idempotencyKey,
"new-value",
TimeSpan.FromMinutes(5));
afterRelease.IsFirstClaim.Should().BeTrue(
"after release, key should be claimable again");
_output.WriteLine("Release verified - key claimable after release");
}
[ValkeyIntegrationFact]
public async Task EdgeCase_IdempotencyStore_Exists()
{
// Arrange
var messageId = Guid.NewGuid();
var idempotencyKey = $"exists-test:{messageId}";
// Act - Check before claiming
var existsBefore = await _idempotencyStore!.ExistsAsync(idempotencyKey);
existsBefore.Should().BeFalse();
// Claim
await _idempotencyStore!.TryClaimAsync(idempotencyKey, "value", TimeSpan.FromMinutes(5));
// Check after claiming
var existsAfter = await _idempotencyStore!.ExistsAsync(idempotencyKey);
existsAfter.Should().BeTrue();
_output.WriteLine("Exists check verified");
}
[ValkeyIntegrationFact]
public async Task EdgeCase_IdempotencyStore_Get()
{
// Arrange
var messageId = Guid.NewGuid();
var idempotencyKey = $"get-test:{messageId}";
var storedValue = "stored-processor-id";
// Act - Get before claiming
var valueBefore = await _idempotencyStore!.GetAsync(idempotencyKey);
valueBefore.Should().BeNull();
// Claim
await _idempotencyStore!.TryClaimAsync(idempotencyKey, storedValue, TimeSpan.FromMinutes(5));
// Get after claiming
var valueAfter = await _idempotencyStore!.GetAsync(idempotencyKey);
// Assert
valueAfter.Should().Be(storedValue);
_output.WriteLine($"Get verified - stored value: {valueAfter}");
}
#endregion
#region Helpers
private ValkeyMessageQueue<TMessage> CreateQueue<TMessage>(
MessageQueueOptions? queueOptions = null)
where TMessage : class
{
queueOptions ??= _fixture.CreateQueueOptions();
var transportOptions = _fixture.CreateOptions();
return new ValkeyMessageQueue<TMessage>(
_connectionFactory!,
queueOptions,
transportOptions,
_fixture.GetLogger<ValkeyMessageQueue<TMessage>>());
}
#endregion
#region Test Types
public sealed class TestMessage
{
public Guid Id { get; set; }
public string? Content { get; set; }
}
/// <summary>
/// Thread-safe hash set for concurrent test scenarios.
/// </summary>
private sealed class ConcurrentHashSet<T> where T : notnull
{
private readonly HashSet<T> _set = new();
private readonly object _lock = new();
public bool Add(T item)
{
lock (_lock) return _set.Add(item);
}
public int Count
{
get { lock (_lock) return _set.Count; }
}
public List<T> ToList()
{
lock (_lock) return _set.ToList();
}
}
#endregion
}

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// -----------------------------------------------------------------------------
// ValkeyContainerFixture.cs
// Sprint: SPRINT_5100_0010_0003 - Router + Messaging Test Implementation
// Task: MESSAGING-5100-004 - Valkey transport compliance tests
// Description: Collection fixture providing a shared Valkey container for integration tests
// -----------------------------------------------------------------------------
using Microsoft.Extensions.Logging;
using Microsoft.Extensions.Logging.Abstractions;
using Microsoft.Extensions.Options;
using StellaOps.Router.Testing.Fixtures;
using Testcontainers.Redis;
using Xunit.Sdk;
namespace StellaOps.Messaging.Transport.Valkey.Tests.Fixtures;
/// <summary>
/// Collection fixture that provides a shared Valkey container for integration tests.
/// Uses Redis container (Valkey is Redis-compatible).
/// Implements IAsyncLifetime to start/stop the container with the test collection.
/// </summary>
public sealed class ValkeyContainerFixture : RouterCollectionFixture, IAsyncDisposable
{
private RedisContainer? _container;
private bool _disposed;
/// <summary>
/// Gets the Valkey container hostname.
/// </summary>
public string HostName => _container?.Hostname ?? "localhost";
/// <summary>
/// Gets the Valkey container mapped port.
/// </summary>
public int Port => _container?.GetMappedPublicPort(6379) ?? 6379;
/// <summary>
/// Gets the connection string for the Valkey container.
/// </summary>
public string ConnectionString => $"{HostName}:{Port}";
/// <summary>
/// Gets a null logger for tests.
/// </summary>
public ILogger<T> GetLogger<T>() => NullLogger<T>.Instance;
/// <summary>
/// Gets whether the container is running.
/// </summary>
public bool IsRunning => _container is not null;
/// <summary>
/// Creates Valkey transport options configured for the test container.
/// </summary>
public ValkeyTransportOptions CreateOptions(int? database = null)
{
return new ValkeyTransportOptions
{
ConnectionString = ConnectionString,
Database = database,
InitializationTimeout = TimeSpan.FromSeconds(30),
ConnectRetry = 3,
AbortOnConnectFail = false,
IdempotencyKeyPrefix = "test:idem:"
};
}
/// <summary>
/// Creates a ValkeyConnectionFactory configured for the test container.
/// </summary>
public ValkeyConnectionFactory CreateConnectionFactory(int? database = null)
{
var options = CreateOptions(database);
return new ValkeyConnectionFactory(
Options.Create(options),
GetLogger<ValkeyConnectionFactory>());
}
/// <summary>
/// Creates message queue options for testing.
/// </summary>
public StellaOps.Messaging.MessageQueueOptions CreateQueueOptions(
string? queueName = null,
string? consumerGroup = null,
string? consumerName = null)
{
return new StellaOps.Messaging.MessageQueueOptions
{
QueueName = queueName ?? $"test:queue:{Guid.NewGuid():N}",
ConsumerGroup = consumerGroup ?? "test-group",
ConsumerName = consumerName ?? $"consumer-{Environment.ProcessId}",
DefaultLeaseDuration = TimeSpan.FromSeconds(30),
MaxDeliveryAttempts = 3,
IdempotencyWindow = TimeSpan.FromMinutes(5),
ApproximateMaxLength = 10000,
RetryInitialBackoff = TimeSpan.FromMilliseconds(100),
RetryMaxBackoff = TimeSpan.FromSeconds(10),
RetryBackoffMultiplier = 2.0
};
}
/// <summary>
/// Creates a ValkeyMessageQueue for testing.
/// </summary>
public ValkeyMessageQueue<TMessage> CreateMessageQueue<TMessage>(
ValkeyConnectionFactory? connectionFactory = null,
StellaOps.Messaging.MessageQueueOptions? queueOptions = null,
TimeProvider? timeProvider = null)
where TMessage : class
{
connectionFactory ??= CreateConnectionFactory();
queueOptions ??= CreateQueueOptions();
var transportOptions = CreateOptions();
return new ValkeyMessageQueue<TMessage>(
connectionFactory,
queueOptions,
transportOptions,
GetLogger<ValkeyMessageQueue<TMessage>>(),
timeProvider);
}
/// <summary>
/// Restarts the container.
/// </summary>
public async Task RestartAsync()
{
if (_container is null)
{
throw new InvalidOperationException("Valkey container is not running.");
}
await _container.StopAsync();
await _container.StartAsync();
}
/// <inheritdoc />
public override async Task InitializeAsync()
{
try
{
_container = new RedisBuilder()
.WithImage("valkey/valkey:8-alpine")
.WithPortBinding(6379, true)
.Build();
await _container.StartAsync();
}
catch (Exception ex)
{
try
{
if (_container is not null)
{
await _container.DisposeAsync();
}
}
catch
{
// Ignore cleanup failures during skip.
}
_container = null;
throw SkipException.ForSkip(
$"Valkey integration tests require Docker/Testcontainers. Skipping because the container failed to start: {ex.Message}");
}
}
/// <inheritdoc />
public override async Task DisposeAsync()
{
await DisposeAsyncCore();
}
async ValueTask IAsyncDisposable.DisposeAsync()
{
await DisposeAsyncCore();
GC.SuppressFinalize(this);
}
private async Task DisposeAsyncCore()
{
if (_disposed) return;
_disposed = true;
if (_container is not null)
{
await _container.StopAsync();
await _container.DisposeAsync();
}
}
}
/// <summary>
/// Collection definition for Valkey integration tests.
/// All tests in this collection share a single Valkey container.
/// </summary>
[CollectionDefinition(Name)]
public sealed class ValkeyIntegrationTestCollection : ICollectionFixture<ValkeyContainerFixture>
{
public const string Name = "Valkey Integration Tests";
}

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// -----------------------------------------------------------------------------
// ValkeyIntegrationFactAttribute.cs
// Sprint: SPRINT_5100_0010_0003 - Router + Messaging Test Implementation
// Task: MESSAGING-5100-004 - Valkey transport compliance tests
// Description: Attribute that skips Valkey integration tests when Docker is not available
// -----------------------------------------------------------------------------
using Xunit;
namespace StellaOps.Messaging.Transport.Valkey.Tests.Fixtures;
/// <summary>
/// Fact attribute for Valkey integration tests.
/// Skips tests when STELLAOPS_TEST_VALKEY environment variable is not set.
/// </summary>
[AttributeUsage(AttributeTargets.Method)]
public sealed class ValkeyIntegrationFactAttribute : FactAttribute
{
public ValkeyIntegrationFactAttribute()
{
var enabled = Environment.GetEnvironmentVariable("STELLAOPS_TEST_VALKEY");
if (!string.Equals(enabled, "1", StringComparison.OrdinalIgnoreCase) &&
!string.Equals(enabled, "true", StringComparison.OrdinalIgnoreCase))
{
Skip = "Valkey integration tests are opt-in. Set STELLAOPS_TEST_VALKEY=1 (requires Docker/Testcontainers).";
}
}
}
/// <summary>
/// Theory attribute for Valkey integration tests.
/// Skips tests when STELLAOPS_TEST_VALKEY environment variable is not set.
/// </summary>
[AttributeUsage(AttributeTargets.Method)]
public sealed class ValkeyIntegrationTheoryAttribute : TheoryAttribute
{
public ValkeyIntegrationTheoryAttribute()
{
var enabled = Environment.GetEnvironmentVariable("STELLAOPS_TEST_VALKEY");
if (!string.Equals(enabled, "1", StringComparison.OrdinalIgnoreCase) &&
!string.Equals(enabled, "true", StringComparison.OrdinalIgnoreCase))
{
Skip = "Valkey integration tests are opt-in. Set STELLAOPS_TEST_VALKEY=1 (requires Docker/Testcontainers).";
}
}
}

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<Project Sdk="Microsoft.NET.Sdk">
<PropertyGroup>
<TargetFramework>net10.0</TargetFramework>
<LangVersion>preview</LangVersion>
<ImplicitUsings>enable</ImplicitUsings>
<Nullable>enable</Nullable>
<TreatWarningsAsErrors>false</TreatWarningsAsErrors>
<!-- Suppress CA2255 from OpenSSL auto-init shim included via Directory.Build.props -->
<NoWarn>$(NoWarn);CA2255</NoWarn>
<IsPackable>false</IsPackable>
<IsTestProject>true</IsTestProject>
<RootNamespace>StellaOps.Messaging.Transport.Valkey.Tests</RootNamespace>
<!-- Disable Concelier test infrastructure since not needed for Messaging tests -->
</PropertyGroup>
<ItemGroup>
<Using Include="FluentAssertions" />
</ItemGroup>
<ItemGroup>
<PackageReference Include="FluentAssertions" />
<PackageReference Include="Microsoft.Extensions.Logging.Abstractions" />
<PackageReference Include="Microsoft.Extensions.Options" />
<PackageReference Include="Moq" />
<PackageReference Include="Testcontainers.Redis" />
<PackageReference Include="xunit.runner.visualstudio" >
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
<PrivateAssets>all</PrivateAssets>
</PackageReference>
</ItemGroup>
<ItemGroup>
<ProjectReference Include="..\..\__Libraries\StellaOps.Messaging.Transport.Valkey\StellaOps.Messaging.Transport.Valkey.csproj" />
<ProjectReference Include="..\__Libraries\StellaOps.Router.Testing\StellaOps.Router.Testing.csproj" />
</ItemGroup>
</Project>

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@@ -0,0 +1,724 @@
// -----------------------------------------------------------------------------
// ValkeyTransportComplianceTests.cs
// Sprint: SPRINT_5100_0010_0003 - Router + Messaging Test Implementation
// Task: MESSAGING-5100-004 - Valkey transport compliance tests
// Description: Transport compliance tests for Valkey transport covering roundtrip,
// pub/sub semantics, consumer groups, ack/nack, and backpressure.
// -----------------------------------------------------------------------------
using System.Text.Json;
using FluentAssertions;
using StellaOps.Messaging;
using StellaOps.Messaging.Abstractions;
using StellaOps.Messaging.Transport.Valkey.Tests.Fixtures;
using Xunit;
using Xunit.Abstractions;
namespace StellaOps.Messaging.Transport.Valkey.Tests;
/// <summary>
/// Transport compliance tests for Valkey transport.
/// Validates:
/// - Message roundtrip (enqueue → lease → message preserved)
/// - Consumer group semantics (exclusive delivery, multiple consumers)
/// - Ack/Nack behavior (acknowledge, release, dead-letter)
/// - Idempotency (duplicate detection)
/// - Backpressure (batch limits, pending counts)
/// - Lease management (renewal, expiration, claiming)
/// </summary>
[Collection(ValkeyIntegrationTestCollection.Name)]
public sealed class ValkeyTransportComplianceTests : IAsyncLifetime
{
private readonly ValkeyContainerFixture _fixture;
private readonly ITestOutputHelper _output;
private ValkeyConnectionFactory? _connectionFactory;
public ValkeyTransportComplianceTests(ValkeyContainerFixture fixture, ITestOutputHelper output)
{
_fixture = fixture;
_output = output;
}
public Task InitializeAsync()
{
_connectionFactory = _fixture.CreateConnectionFactory();
return Task.CompletedTask;
}
public async Task DisposeAsync()
{
if (_connectionFactory is not null)
{
await _connectionFactory.DisposeAsync();
}
}
#region Message Roundtrip Tests
[ValkeyIntegrationFact]
public async Task Roundtrip_SimpleMessage_AllFieldsPreserved()
{
// Arrange
var queue = CreateQueue<TestMessage>();
var original = new TestMessage
{
Id = Guid.NewGuid(),
Content = "Hello Valkey!",
Timestamp = DateTimeOffset.UtcNow,
Tags = new[] { "tag1", "tag2" }
};
// Act
var enqueueResult = await queue.EnqueueAsync(original);
enqueueResult.Success.Should().BeTrue();
enqueueResult.MessageId.Should().NotBeNullOrEmpty();
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
leases.Should().HaveCount(1);
var lease = leases[0];
lease.Message.Id.Should().Be(original.Id);
lease.Message.Content.Should().Be(original.Content);
lease.Message.Tags.Should().BeEquivalentTo(original.Tags);
lease.Attempt.Should().Be(1);
await lease.AcknowledgeAsync();
_output.WriteLine("Roundtrip test passed");
}
[ValkeyIntegrationFact]
public async Task Roundtrip_ComplexMessage_PreservedAfterSerialization()
{
// Arrange
var queue = CreateQueue<ComplexMessage>();
var original = new ComplexMessage
{
Id = Guid.NewGuid(),
Metadata = new Dictionary<string, object>
{
["key1"] = "value1",
["key2"] = 42,
["key3"] = true
},
NestedData = new NestedObject
{
Name = "nested",
Value = 123.45m
}
};
// Act
await queue.EnqueueAsync(original);
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
var lease = leases[0];
lease.Message.Id.Should().Be(original.Id);
lease.Message.NestedData.Should().NotBeNull();
lease.Message.NestedData!.Name.Should().Be(original.NestedData!.Name);
lease.Message.NestedData.Value.Should().Be(original.NestedData.Value);
await lease.AcknowledgeAsync();
_output.WriteLine("Complex message roundtrip test passed");
}
[ValkeyIntegrationFact]
public async Task Roundtrip_BinaryData_PreservesAllBytes()
{
// Arrange
var queue = CreateQueue<BinaryMessage>();
var binaryPayload = Enumerable.Range(0, 256).Select(i => (byte)i).ToArray();
var original = new BinaryMessage
{
Id = Guid.NewGuid(),
Data = binaryPayload
};
// Act
await queue.EnqueueAsync(original);
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
leases[0].Message.Data.Should().BeEquivalentTo(binaryPayload);
await leases[0].AcknowledgeAsync();
_output.WriteLine("Binary data roundtrip test passed");
}
[ValkeyIntegrationTheory]
[InlineData(1)]
[InlineData(10)]
[InlineData(100)]
[InlineData(1000)]
public async Task Roundtrip_MultipleMessages_OrderPreserved(int messageCount)
{
// Arrange
var queue = CreateQueue<TestMessage>();
var messages = Enumerable.Range(1, messageCount)
.Select(i => new TestMessage
{
Id = Guid.NewGuid(),
Content = $"Message-{i:D5}",
Timestamp = DateTimeOffset.UtcNow.AddMilliseconds(i)
})
.ToList();
// Act - Enqueue all
foreach (var msg in messages)
{
await queue.EnqueueAsync(msg);
}
// Lease and verify order
var receivedContents = new List<string>();
int remaining = messageCount;
while (remaining > 0)
{
var batchSize = Math.Min(remaining, 50);
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = batchSize });
foreach (var lease in leases)
{
receivedContents.Add(lease.Message.Content!);
await lease.AcknowledgeAsync();
}
remaining -= leases.Count;
}
// Assert - FIFO order preserved
var expectedContents = messages.Select(m => m.Content).ToList();
receivedContents.Should().BeEquivalentTo(expectedContents, options => options.WithStrictOrdering());
_output.WriteLine($"Order preserved for {messageCount} messages");
}
#endregion
#region Consumer Group Semantics Tests
[ValkeyIntegrationFact]
public async Task ConsumerGroup_MultipleConsumers_ExclusiveDelivery()
{
// Arrange - Two consumers in same group
var queueOptions = _fixture.CreateQueueOptions();
var queue1 = CreateQueue<TestMessage>(queueOptions: queueOptions, consumerName: "consumer-1");
var queue2 = CreateQueue<TestMessage>(queueOptions: queueOptions, consumerName: "consumer-2");
var messages = Enumerable.Range(1, 20)
.Select(i => new TestMessage { Id = Guid.NewGuid(), Content = $"Msg-{i}" })
.ToList();
foreach (var msg in messages)
{
await queue1.EnqueueAsync(msg);
}
// Act - Both consumers lease
var leases1 = await queue1.LeaseAsync(new LeaseRequest { BatchSize = 10 });
var leases2 = await queue2.LeaseAsync(new LeaseRequest { BatchSize = 10 });
// Assert - Messages should be distributed (no duplicates)
var allIds = leases1.Concat(leases2).Select(l => l.Message.Id).ToList();
allIds.Should().OnlyHaveUniqueItems("each message should be delivered to only one consumer");
allIds.Should().HaveCount(20, "all messages should be delivered");
// Cleanup
foreach (var lease in leases1.Concat(leases2))
{
await lease.AcknowledgeAsync();
}
_output.WriteLine("Exclusive delivery test passed");
}
[ValkeyIntegrationFact]
public async Task ConsumerGroup_DifferentGroups_EachReceivesAllMessages()
{
// Arrange - Two different consumer groups
var queueName = $"test:queue:{Guid.NewGuid():N}";
var options1 = _fixture.CreateQueueOptions(queueName: queueName, consumerGroup: "group-1");
var options2 = _fixture.CreateQueueOptions(queueName: queueName, consumerGroup: "group-2");
var queue1 = CreateQueue<TestMessage>(queueOptions: options1);
var queue2 = CreateQueue<TestMessage>(queueOptions: options2);
var message = new TestMessage { Id = Guid.NewGuid(), Content = "Shared message" };
// Act - Enqueue to one queue (same stream)
await queue1.EnqueueAsync(message);
// Both groups should receive the message
var leases1 = await queue1.LeaseAsync(new LeaseRequest { BatchSize = 1 });
var leases2 = await queue2.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
leases1.Should().HaveCount(1);
leases2.Should().HaveCount(1);
leases1[0].Message.Id.Should().Be(message.Id);
leases2[0].Message.Id.Should().Be(message.Id);
await leases1[0].AcknowledgeAsync();
await leases2[0].AcknowledgeAsync();
_output.WriteLine("Different groups test passed");
}
#endregion
#region Ack/Nack/Release Semantics Tests
[ValkeyIntegrationFact]
public async Task Acknowledge_RemovesMessageFromQueue()
{
// Arrange
var queue = CreateQueue<TestMessage>();
await queue.EnqueueAsync(new TestMessage { Id = Guid.NewGuid(), Content = "Ack test" });
// Act
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
await leases[0].AcknowledgeAsync();
// Assert - No more messages
var pending = await queue.GetPendingCountAsync();
pending.Should().Be(0);
var moreLeases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
moreLeases.Should().BeEmpty();
_output.WriteLine("Acknowledge removes message test passed");
}
[ValkeyIntegrationFact]
public async Task Release_Retry_MessageBecomesAvailableAgain()
{
// Arrange
var queueOptions = _fixture.CreateQueueOptions();
queueOptions.RetryInitialBackoff = TimeSpan.Zero; // No backoff for test speed
var queue = CreateQueue<TestMessage>(queueOptions: queueOptions);
var message = new TestMessage { Id = Guid.NewGuid(), Content = "Retry test" };
await queue.EnqueueAsync(message);
// Act - Lease and release for retry
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
leases.Should().HaveCount(1);
leases[0].Attempt.Should().Be(1);
await leases[0].ReleaseAsync(ReleaseDisposition.Retry);
// Wait briefly for re-enqueue
await Task.Delay(100);
// Lease again
var retryLeases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
retryLeases.Should().HaveCount(1);
retryLeases[0].Message.Id.Should().Be(message.Id);
retryLeases[0].Attempt.Should().Be(2);
await retryLeases[0].AcknowledgeAsync();
_output.WriteLine("Release retry test passed");
}
[ValkeyIntegrationFact]
public async Task DeadLetter_MovesMessageToDeadLetterQueue()
{
// Arrange
var mainQueueName = $"test:main:{Guid.NewGuid():N}";
var dlqName = $"test:dlq:{Guid.NewGuid():N}";
var mainOptions = _fixture.CreateQueueOptions(queueName: mainQueueName);
mainOptions.DeadLetterQueue = dlqName;
var dlqOptions = _fixture.CreateQueueOptions(queueName: dlqName);
var mainQueue = CreateQueue<TestMessage>(queueOptions: mainOptions);
var dlqQueue = CreateQueue<TestMessage>(queueOptions: dlqOptions);
var message = new TestMessage { Id = Guid.NewGuid(), Content = "DLQ test" };
await mainQueue.EnqueueAsync(message);
// Act
var leases = await mainQueue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
await leases[0].DeadLetterAsync("test-reason");
// Assert - Message should be in DLQ
var dlqLeases = await dlqQueue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
dlqLeases.Should().HaveCount(1);
dlqLeases[0].Message.Id.Should().Be(message.Id);
// Main queue should be empty
var mainPending = await mainQueue.GetPendingCountAsync();
mainPending.Should().Be(0);
await dlqLeases[0].AcknowledgeAsync();
_output.WriteLine("Dead letter test passed");
}
[ValkeyIntegrationFact]
public async Task MaxDeliveryAttempts_ExceededCausesDeadLetter()
{
// Arrange
var mainQueueName = $"test:main:{Guid.NewGuid():N}";
var dlqName = $"test:dlq:{Guid.NewGuid():N}";
var mainOptions = _fixture.CreateQueueOptions(queueName: mainQueueName);
mainOptions.MaxDeliveryAttempts = 3;
mainOptions.DeadLetterQueue = dlqName;
mainOptions.RetryInitialBackoff = TimeSpan.Zero;
var dlqOptions = _fixture.CreateQueueOptions(queueName: dlqName);
var mainQueue = CreateQueue<TestMessage>(queueOptions: mainOptions);
var dlqQueue = CreateQueue<TestMessage>(queueOptions: dlqOptions);
var message = new TestMessage { Id = Guid.NewGuid(), Content = "Max attempts test" };
await mainQueue.EnqueueAsync(message);
// Act - Retry until max attempts exceeded
for (int i = 0; i < 3; i++)
{
var leases = await mainQueue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
if (leases.Count == 0) break;
await leases[0].ReleaseAsync(ReleaseDisposition.Retry);
await Task.Delay(50);
}
// Wait for final retry to dead-letter
await Task.Delay(200);
// Assert - Message should be in DLQ
var dlqLeases = await dlqQueue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
dlqLeases.Should().HaveCount(1);
dlqLeases[0].Message.Id.Should().Be(message.Id);
await dlqLeases[0].AcknowledgeAsync();
_output.WriteLine("Max delivery attempts test passed");
}
#endregion
#region Idempotency Tests
[ValkeyIntegrationFact]
public async Task Idempotency_DuplicateKey_ReturnsExistingMessage()
{
// Arrange
var queue = CreateQueue<TestMessage>();
var idempotencyKey = Guid.NewGuid().ToString();
var message = new TestMessage { Id = Guid.NewGuid(), Content = "Idempotent message" };
// Act - Enqueue twice with same key
var result1 = await queue.EnqueueAsync(message, EnqueueOptions.WithIdempotencyKey(idempotencyKey));
var result2 = await queue.EnqueueAsync(message, EnqueueOptions.WithIdempotencyKey(idempotencyKey));
// Assert
result1.Success.Should().BeTrue();
result1.WasDuplicate.Should().BeFalse();
result2.Success.Should().BeTrue();
result2.WasDuplicate.Should().BeTrue();
result2.MessageId.Should().Be(result1.MessageId);
// Only one message should be in queue
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 10 });
leases.Should().HaveCount(1);
await leases[0].AcknowledgeAsync();
_output.WriteLine("Idempotency test passed");
}
[ValkeyIntegrationFact]
public async Task Idempotency_DifferentKeys_BothMessagesEnqueued()
{
// Arrange
var queue = CreateQueue<TestMessage>();
var message1 = new TestMessage { Id = Guid.NewGuid(), Content = "Message 1" };
var message2 = new TestMessage { Id = Guid.NewGuid(), Content = "Message 2" };
// Act
await queue.EnqueueAsync(message1, EnqueueOptions.WithIdempotencyKey("key-1"));
await queue.EnqueueAsync(message2, EnqueueOptions.WithIdempotencyKey("key-2"));
// Assert
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 10 });
leases.Should().HaveCount(2);
foreach (var lease in leases)
{
await lease.AcknowledgeAsync();
}
_output.WriteLine("Different idempotency keys test passed");
}
#endregion
#region Backpressure Tests
[ValkeyIntegrationFact]
public async Task Backpressure_BatchSize_LimitsMessageCount()
{
// Arrange
var queue = CreateQueue<TestMessage>();
for (int i = 0; i < 100; i++)
{
await queue.EnqueueAsync(new TestMessage { Id = Guid.NewGuid(), Content = $"Msg-{i}" });
}
// Act - Request only 10
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 10 });
// Assert
leases.Should().HaveCount(10);
// Cleanup
foreach (var lease in leases)
{
await lease.AcknowledgeAsync();
}
// Remaining messages
var pending = await queue.GetPendingCountAsync();
pending.Should().Be(0); // Not pending because not leased yet
_output.WriteLine("Batch size backpressure test passed");
}
[ValkeyIntegrationFact]
public async Task Backpressure_PendingCount_ReflectsUnacknowledged()
{
// Arrange
var queue = CreateQueue<TestMessage>();
for (int i = 0; i < 50; i++)
{
await queue.EnqueueAsync(new TestMessage { Id = Guid.NewGuid(), Content = $"Msg-{i}" });
}
// Act - Lease 30, ack 10
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 30 });
leases.Should().HaveCount(30);
for (int i = 0; i < 10; i++)
{
await leases[i].AcknowledgeAsync();
}
// Assert - 20 still pending
var pending = await queue.GetPendingCountAsync();
pending.Should().Be(20);
// Cleanup
for (int i = 10; i < 30; i++)
{
await leases[i].AcknowledgeAsync();
}
_output.WriteLine("Pending count test passed");
}
[ValkeyIntegrationFact]
public async Task Backpressure_EmptyQueue_ReturnsEmpty()
{
// Arrange
var queue = CreateQueue<TestMessage>();
// Act
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 10 });
// Assert
leases.Should().BeEmpty();
_output.WriteLine("Empty queue test passed");
}
#endregion
#region Lease Management Tests
[ValkeyIntegrationFact]
public async Task LeaseRenewal_ExtendsLeaseTime()
{
// Arrange
var queue = CreateQueue<TestMessage>();
await queue.EnqueueAsync(new TestMessage { Id = Guid.NewGuid(), Content = "Renewal test" });
// Act
var leases = await queue.LeaseAsync(new LeaseRequest
{
BatchSize = 1,
LeaseDuration = TimeSpan.FromSeconds(30)
});
var originalExpiry = leases[0].LeaseExpiresAt;
await leases[0].RenewAsync(TimeSpan.FromMinutes(5));
// Assert - Lease should be extended
leases[0].LeaseExpiresAt.Should().BeAfter(originalExpiry);
await leases[0].AcknowledgeAsync();
_output.WriteLine("Lease renewal test passed");
}
[ValkeyIntegrationFact]
public async Task ClaimExpired_RecoversStaleMessages()
{
// Arrange
var queueOptions = _fixture.CreateQueueOptions();
queueOptions.DefaultLeaseDuration = TimeSpan.FromMilliseconds(100);
var queue = CreateQueue<TestMessage>(queueOptions: queueOptions);
await queue.EnqueueAsync(new TestMessage { Id = Guid.NewGuid(), Content = "Stale test" });
// Lease and let expire
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
leases.Should().HaveCount(1);
// Wait for lease to expire
await Task.Delay(500);
// Act - Claim expired
var claimed = await queue.ClaimExpiredAsync(new ClaimRequest
{
BatchSize = 10,
MinIdleTime = TimeSpan.FromMilliseconds(100),
MinDeliveryAttempts = 1
});
// Assert
claimed.Should().HaveCount(1);
claimed[0].Message.Content.Should().Be("Stale test");
claimed[0].Attempt.Should().BeGreaterThan(1);
await claimed[0].AcknowledgeAsync();
_output.WriteLine("Claim expired test passed");
}
#endregion
#region Metadata/Headers Tests
[ValkeyIntegrationFact]
public async Task Metadata_CorrelationId_PreservedInLease()
{
// Arrange
var queue = CreateQueue<TestMessage>();
var correlationId = Guid.NewGuid().ToString();
var message = new TestMessage { Id = Guid.NewGuid(), Content = "Correlation test" };
// Act
await queue.EnqueueAsync(message, EnqueueOptions.WithCorrelation(correlationId));
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
leases[0].CorrelationId.Should().Be(correlationId);
await leases[0].AcknowledgeAsync();
_output.WriteLine("Correlation ID test passed");
}
[ValkeyIntegrationFact]
public async Task Metadata_TenantId_PreservedInLease()
{
// Arrange
var queue = CreateQueue<TestMessage>();
var tenantId = "tenant-123";
var message = new TestMessage { Id = Guid.NewGuid(), Content = "Tenant test" };
// Act
await queue.EnqueueAsync(message, new EnqueueOptions { TenantId = tenantId });
var leases = await queue.LeaseAsync(new LeaseRequest { BatchSize = 1 });
// Assert
leases[0].TenantId.Should().Be(tenantId);
await leases[0].AcknowledgeAsync();
_output.WriteLine("Tenant ID test passed");
}
#endregion
#region Connection Resilience Tests
[ValkeyIntegrationFact]
public async Task ConnectionResilience_Ping_Succeeds()
{
// Arrange & Act
var act = async () => await _connectionFactory!.PingAsync();
// Assert
await act.Should().NotThrowAsync();
_output.WriteLine("Ping test passed");
}
[ValkeyIntegrationFact]
public async Task ConnectionResilience_QueueProviderName_IsValkey()
{
// Arrange
var queue = CreateQueue<TestMessage>();
// Assert
queue.ProviderName.Should().Be("valkey");
queue.QueueName.Should().NotBeNullOrEmpty();
_output.WriteLine("Provider name test passed");
await Task.CompletedTask;
}
#endregion
#region Helpers
private ValkeyMessageQueue<TMessage> CreateQueue<TMessage>(
MessageQueueOptions? queueOptions = null,
string? consumerName = null)
where TMessage : class
{
queueOptions ??= _fixture.CreateQueueOptions();
if (consumerName is not null)
{
queueOptions.ConsumerName = consumerName;
}
var transportOptions = _fixture.CreateOptions();
return new ValkeyMessageQueue<TMessage>(
_connectionFactory!,
queueOptions,
transportOptions,
_fixture.GetLogger<ValkeyMessageQueue<TMessage>>());
}
#endregion
#region Test Message Types
public sealed class TestMessage
{
public Guid Id { get; set; }
public string? Content { get; set; }
public DateTimeOffset Timestamp { get; set; }
public string[]? Tags { get; set; }
}
public sealed class ComplexMessage
{
public Guid Id { get; set; }
public Dictionary<string, object>? Metadata { get; set; }
public NestedObject? NestedData { get; set; }
}
public sealed class NestedObject
{
public string? Name { get; set; }
public decimal Value { get; set; }
}
public sealed class BinaryMessage
{
public Guid Id { get; set; }
public byte[]? Data { get; set; }
}
#endregion
}