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12 Commits

Author SHA1 Message Date
Loretta 0e912891b1 Update dependencies and expand README documentation
Updated test and benchmark project dependencies to latest versions (BenchmarkDotNet, coverlet.collector, MSTest, etc.). Reformatted source generator project references for consistency. Commented out most AcBinary benchmark variants in Program.cs, leaving only FastMode+Default enabled. Significantly expanded README with detailed architecture, file descriptions, and configuration for each serializer subfolder. Added LLM maintenance notes to ensure documentation stays in sync with code changes.
2026-03-20 16:42:51 +01:00
Loretta 16daad2917 Optimize scan codegen with compile-time property checks
Added HasScanWork and related methods to determine at compile time if a property requires scan work. EmitScanProp now skips code generation for properties proven to not need scan logic, improving efficiency and reducing unnecessary code output.
2026-03-10 18:35:25 +01:00
Loretta 2f99b4e3b7 Refactor SGen: property/object marker bridges, FixObj support
Major refactor of binary serialization codegen and runtime:
- Added property writer bridge methods for markerless/metadata paths
- Centralized object marker logic via new bridge methods
- Simplified SGen output: single bridge call replaces branching
- FixObj slot markers now supported in serialization/deserialization
- Refactored collection/dictionary element serialization
- Removed redundant WritePropertyMarkerless method
- Improved tests: use BinaryTypeCode constants, FixObj parsing
- Added InternalsVisibleTo for test project access
- Annotated TestSimpleClass for SGen support

Reduces generated code size, improves maintainability, and ensures correct handling of new binary format features.
2026-03-10 17:32:00 +01:00
Loretta c84c26048c Refactor property writing logic in AcBinarySerializer
Split WriteObjectProperties into markerless and metadata variants for clarity and performance. Adjust method inlining attributes to favor hot path optimization. Comment out WritePropertyValue and some AcBinaryBenchmark variants to streamline code and benchmarks. Improves maintainability and serialization efficiency.
2026-03-09 22:06:58 +01:00
Loretta 76ce60b7f0 Refactor polymorphic and ref handling in serializer
Split hot/cold paths for polymorphic and reference-tracked object serialization. Introduce dedicated cold-path methods for polymorphic and IId reference handling, and new helpers for writing reference indices. Extract property writing loop for reuse. Simplify WriteObject and update property dispatch logic to reduce branching and clarify marker handling.
2026-03-09 16:13:10 +01:00
Loretta 68c25b2381 Polymorphic serialization: slot-based prefix system overhaul
Refactored BinaryTypeCode to reserve 0..63 for FixObj slot indices, enabling direct array access for object wrappers. Introduced a new polymorphic type prefix system for properties whose runtime type differs from their declared type, with first/repeated occurrence markers and combined ref-tracking support. Unified wrapper slot caching for SGen and runtime types, improving performance and eliminating dictionary lookups in hot paths. Updated code generation, tests, and constants to use the new slot system. Added new settings and utility scripts. Overall, serialization is now faster, more robust, and extensible.
2026-03-09 15:04:46 +01:00
Loretta 11a15bfa64 Update serializer defaults and add MemoryPack fetch scripts
Changed default WireMode to Compact and string interning to Attribute in AcBinarySerializerOptions. Added Bash commands in settings.local.json for fetching and processing Cysharp/MemoryPack files via GitHub API and curl/python scripts.
2026-03-07 20:50:32 +01:00
Loretta e0f546dde6 Improve property ordering, null handling, and string interning
Refactored property enumeration in AcBinarySourceGenerator to match runtime ordering and filtering using a new helper. Null checks for reference types are now unconditional in generated code. Changed default string interning mode to All. Added InternalsVisibleTo for FruitBank.Common. Writer attribute checks now only apply to source-defined types.
2026-03-07 13:37:49 +01:00
Loretta d900442468 Switch to binary serialization; add IEntityComment interface
- Introduced IEntityComment interface for entity comments.
- Changed SignalR client message serialization to binary.
- Updated SignalResponseDataMessage docs for GZip (was Brotli).
- Refactored GetResponseData<T> for GZip decompression and improved error handling.
- Added necessary using statements for new interface and features.
2026-03-06 14:51:06 +01:00
Loretta 4ab8ede6ca Switch to binary serialization, update compression to GZip
- Changed default SignalR message serialization from JSON to binary.
- Updated AcSerializerType enum values: Binary=0, Json=1.
- Disabled string caching when intern table is present.
- Replaced Brotli with GZip for JSON compression in comments and logic.
- Refactored SignalResponseDataMessage deserialization for improved error handling.
2026-03-06 14:26:48 +01:00
Adam 155cef4500 Enityt comment 2026-03-01 21:09:31 +01:00
Loretta 6b7f4bf44f Set SignalR client log level to Warning
Changed minimum log level from Trace to Warning in SignalR client configuration to reduce log verbosity and record only warnings, errors, and critical logs.
2026-02-06 19:00:57 +01:00
35 changed files with 2049 additions and 1028 deletions

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@ -37,7 +37,16 @@
"Bash(sort:*)", "Bash(sort:*)",
"WebFetch(domain:neuecc.medium.com)", "WebFetch(domain:neuecc.medium.com)",
"WebFetch(domain:raw.githubusercontent.com)", "WebFetch(domain:raw.githubusercontent.com)",
"Bash(xargs cat)" "Bash(xargs cat)",
"Bash(curl -s -H \"Accept: application/vnd.github.v3+json\" \"https://api.github.com/repos/Cysharp/MemoryPack/git/trees/main?recursive=1\")",
"Bash(python3 -c \" import sys, json data = json.load\\(sys.stdin\\) for item in data.get\\(''tree'', []\\): path = item[''path''] if ''nion'' in path.lower\\(\\) or ''Emitter'' in path or ''Generator'' in path.split\\(''/''\\)[-1] if ''/'' in path else False: print\\(path\\) \")",
"Bash(python -c \" import sys, json data = json.load\\(sys.stdin\\) for item in data.get\\(''tree'', []\\): p = item[''path''] pl = p.lower\\(\\) if ''union'' in pl or ''emitter'' in pl or \\(p.startswith\\(''src/MemoryPack.Generator/''\\) and p.endswith\\(''.cs''\\)\\): print\\(p\\) \")",
"Bash(curl -s \"https://api.github.com/repos/Cysharp/MemoryPack/git/trees/main?recursive=1\")",
"Bash(curl -sL \"https://raw.githubusercontent.com/Cysharp/MemoryPack/main/src/MemoryPack.Generator/MemoryPackGenerator.Emitter.cs\")",
"Bash(curl -sL \"https://raw.githubusercontent.com/Cysharp/MemoryPack/main/src/MemoryPack.Core/MemoryPackCode.cs\")",
"Bash(curl -sL \"https://raw.githubusercontent.com/Cysharp/MemoryPack/main/src/MemoryPack.Generator/MemoryPackGenerator.Parser.cs\")",
"Bash(perl -i -pe 's/GetWrapperBySlot\\\\\\(\\([^,]+\\), \\(typeof\\\\\\([^\\)]+\\\\\\)\\)\\\\\\)/GetWrapper\\($2, $1\\)/g' \"H:/Applications/Aycode/Source/AyCode.Core/AyCode.Core.Serializers.SourceGenerator/AcBinarySourceGenerator.cs\")",
"Bash(wc -l H:/Applications/Aycode/Source/AyCode.Core/AyCode.Core/Serializers/Binaries/*.cs)"
] ]
} }
} }

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@ -16,9 +16,9 @@
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>
<PackageReference Include="BenchmarkDotNet" Version="0.15.2" /> <PackageReference Include="BenchmarkDotNet" Version="0.15.8" />
<PackageReference Include="MessagePack" Version="3.1.4" /> <PackageReference Include="MessagePack" Version="3.1.4" />
<PackageReference Include="Microsoft.VisualStudio.DiagnosticsHub.BenchmarkDotNetDiagnosers" Version="18.3.36812.1" /> <PackageReference Include="Microsoft.VisualStudio.DiagnosticsHub.BenchmarkDotNetDiagnosers" Version="18.6.37110.2" />
<PackageReference Include="MongoDB.Bson" Version="3.5.2" /> <PackageReference Include="MongoDB.Bson" Version="3.5.2" />
</ItemGroup> </ItemGroup>
@ -29,9 +29,7 @@
<ProjectReference Include="..\AyCode.Services.Server\AyCode.Services.Server.csproj" /> <ProjectReference Include="..\AyCode.Services.Server\AyCode.Services.Server.csproj" />
<ProjectReference Include="..\AyCode.Models.Server\AyCode.Models.Server.csproj" /> <ProjectReference Include="..\AyCode.Models.Server\AyCode.Models.Server.csproj" />
<!-- Source Generator for [AcBinarySerializable] marked types --> <!-- Source Generator for [AcBinarySerializable] marked types -->
<ProjectReference Include="..\AyCode.Core.Serializers.SourceGenerator\AyCode.Core.Serializers.SourceGenerator.csproj" <ProjectReference Include="..\AyCode.Core.Serializers.SourceGenerator\AyCode.Core.Serializers.SourceGenerator.csproj" OutputItemType="Analyzer" ReferenceOutputAssembly="false" />
OutputItemType="Analyzer"
ReferenceOutputAssembly="false" />
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>

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@ -36,12 +36,14 @@ public static class Program
// Serializer name constants // Serializer name constants
private const string SerializerMessagePack = "MessagePack"; private const string SerializerMessagePack = "MessagePack";
private const string SerializerAcBinaryDefault = "AcBinary (Default)"; private const string SerializerAcBinaryDefault = "AcBinary (Default)";
private const string SerializerAcBinaryDefaultNoSgen = "AcBinary (Def, NoSgen)";
private const string SerializerAcBinaryNoRef = "AcBinary (NoRef)"; private const string SerializerAcBinaryNoRef = "AcBinary (NoRef)";
private const string SerializerAcBinaryFastMode = "AcBinary (FastMode)"; private const string SerializerAcBinaryFastMode = "AcBinary (FastMode)";
private const string SerializerAcBinaryFastNoSgen = "AcBinary (Fast, NoSgen)";
private const string SerializerAcBinaryNoIntern = "AcBinary (NoIntern)"; private const string SerializerAcBinaryNoIntern = "AcBinary (NoIntern)";
private const string SerializerMemoryPack = "MemoryPack"; private const string SerializerMemoryPack = "MemoryPack";
private const string SerializerAcBinaryBufferWriter = "AcBinary (BufferWriter)"; //private const string SerializerAcBinaryBufferWriter = "AcBinary (BufferWriter)";
private const string SerializerSystemTextJson = "System.Text.Json"; //private const string SerializerSystemTextJson = "System.Text.Json";
private static readonly UTF8Encoding Utf8NoBom = new(encoderShouldEmitUTF8Identifier: false); private static readonly UTF8Encoding Utf8NoBom = new(encoderShouldEmitUTF8Identifier: false);
@ -208,20 +210,34 @@ public static class Program
private static List<ISerializerBenchmark> CreateSerializers(TestDataSet testData) private static List<ISerializerBenchmark> CreateSerializers(TestDataSet testData)
{ {
var binaryNoInternOption = AcBinarySerializerOptions.Default;
binaryNoInternOption.UseStringInterning = StringInterningMode.None;
var binaryDefaultNoSgenOption = AcBinarySerializerOptions.Default;
binaryDefaultNoSgenOption.UseGeneratedCode = false;
var binaryFastModeNoSgenOption = AcBinarySerializerOptions.FastMode;
binaryFastModeNoSgenOption.UseGeneratedCode = false;
return new List<ISerializerBenchmark> return new List<ISerializerBenchmark>
{ {
// AcBinary variants // AcBinary variants
new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.Default, SerializerAcBinaryDefault),
new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.WithoutReferenceHandling, SerializerAcBinaryNoRef),
new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryFastMode),
new AcBinaryBenchmark(testData.Order, new AcBinarySerializerOptions { UseStringInterning = StringInterningMode.None }, SerializerAcBinaryNoIntern),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryDefault),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryNoRef),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryFastMode), //new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryFastMode),
////new AcBinaryBenchmark(testData.Order, binaryFastModeNoSgenOption, SerializerAcBinaryFastNoSgen),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.Default, SerializerAcBinaryDefault),
////new AcBinaryBenchmark(testData.Order, binaryDefaultNoSgenOption, SerializerAcBinaryDefaultNoSgen),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.WithoutReferenceHandling, SerializerAcBinaryNoRef),
//new AcBinaryBenchmark(testData.Order, binaryNoInternOption, SerializerAcBinaryNoIntern),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryFastMode),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryFastNoSgen),
new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryDefault),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryDefaultNoSgen),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryNoRef),
//new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryNoIntern), //new AcBinaryBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryNoIntern),
// MemoryPack // MemoryPack
new MemoryPackBenchmark(testData.Order, SerializerMemoryPack), new MemoryPackBenchmark(testData.Order, SerializerMemoryPack),
@ -229,10 +245,10 @@ public static class Program
new MessagePackBenchmark(testData.Order, SerializerMessagePack), new MessagePackBenchmark(testData.Order, SerializerMessagePack),
// AcBinary BufferWriter // AcBinary BufferWriter
new AcBinaryBufferWriterBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryBufferWriter), //new AcBinaryBufferWriterBenchmark(testData.Order, AcBinarySerializerOptions.FastMode, SerializerAcBinaryBufferWriter),
// System.Text.Json // System.Text.Json
new SystemTextJsonBenchmark(testData.Order, SerializerSystemTextJson) //new SystemTextJsonBenchmark(testData.Order, SerializerSystemTextJson)
}; };
} }

View File

@ -79,21 +79,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
} }
} }
foreach (var member in typeSymbol.GetMembers()) foreach (var p in GetAllSerializablePropertySymbols(typeSymbol))
{ {
if (member is IPropertySymbol p && // String interning attribútum detektálás (null = no attr, true/false = explicit)
p.DeclaredAccessibility == Accessibility.Public &&
p.GetMethod != null && p.SetMethod != null &&
!p.IsIndexer && !p.IsStatic)
{
var hasIgnore = p.GetAttributes().Any(a =>
{
var name = a.AttributeClass?.Name ?? "";
return name == "JsonIgnoreAttribute" || name == "IgnoreMemberAttribute" || name == "BsonIgnoreAttribute";
});
if (hasIgnore) continue;
// String interning attribútum detektálás (null = no attr, true/false = explicit)
bool? stringInternAttr = null; bool? stringInternAttr = null;
if (!enableInternString) if (!enableInternString)
{ {
@ -137,8 +125,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
? namedPropType.OriginalDefinition ? namedPropType.OriginalDefinition
: p.Type; : p.Type;
hasGenWriter = resolvedType.GetAttributes().Any(a => hasGenWriter = resolvedType.Locations.Any(l => l.IsInSource)
a.AttributeClass?.ToDisplayString() == AttributeName); && resolvedType.GetAttributes().Any(a =>
a.AttributeClass?.ToDisplayString() == AttributeName);
if (hasGenWriter) if (hasGenWriter)
{ {
@ -236,8 +225,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
{ {
var resolvedElem = elemType is INamedTypeSymbol namedElem var resolvedElem = elemType is INamedTypeSymbol namedElem
? namedElem.OriginalDefinition : elemType; ? namedElem.OriginalDefinition : elemType;
elemHasGenWriter = resolvedElem.GetAttributes().Any(a => elemHasGenWriter = resolvedElem.Locations.Any(l => l.IsInSource)
a.AttributeClass?.ToDisplayString() == AttributeName); && resolvedElem.GetAttributes().Any(a =>
a.AttributeClass?.ToDisplayString() == AttributeName);
if (elemHasGenWriter) if (elemHasGenWriter)
{ {
// Read element type's EnableMetadataFeature // Read element type's EnableMetadataFeature
@ -297,8 +287,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
if (dictValueKind == PropertyTypeKind.Complex) if (dictValueKind == PropertyTypeKind.Complex)
{ {
var resolvedValue = valueType is INamedTypeSymbol nvt ? nvt.OriginalDefinition : valueType; var resolvedValue = valueType is INamedTypeSymbol nvt ? nvt.OriginalDefinition : valueType;
dictValueHasGenWriter = resolvedValue.GetAttributes().Any(a => dictValueHasGenWriter = resolvedValue.Locations.Any(l => l.IsInSource)
a.AttributeClass?.ToDisplayString() == AttributeName); && resolvedValue.GetAttributes().Any(a =>
a.AttributeClass?.ToDisplayString() == AttributeName);
if (dictValueHasGenWriter) if (dictValueHasGenWriter)
{ {
var vfn = BuildFlatName((INamedTypeSymbol)resolvedValue); var vfn = BuildFlatName((INamedTypeSymbol)resolvedValue);
@ -342,7 +333,6 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
propEnableMetadata, elemEnableMetadata, propEnableMetadata, elemEnableMetadata,
childNeedsIdScan, childNeedsAllRefScan, childNeedsInternScan, childNeedsIdScan, childNeedsAllRefScan, childNeedsInternScan,
elemNeedsIdScan, elemNeedsAllRefScan, elemNeedsInternScan)); elemNeedsIdScan, elemNeedsAllRefScan, elemNeedsInternScan));
}
} }
// IId<T>: Id first (index 0), then alphabetical — matches runtime TypeMetadataBase ordering // IId<T>: Id first (index 0), then alphabetical — matches runtime TypeMetadataBase ordering
@ -361,7 +351,8 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
} }
} }
properties.Sort((a, b) => string.Compare(a.Name, b.Name, StringComparison.Ordinal)); // Properties are already in runtime-matching order from GetAllSerializablePropertySymbols:
// derived → base, each level sorted alphabetically (matches TypeMetadataBase.GetUnfilteredProperties).
var className = BuildFlatName(typeSymbol); var className = BuildFlatName(typeSymbol);
var typeNameHash = ComputeFnvHash(typeSymbol.Name); var typeNameHash = ComputeFnvHash(typeSymbol.Name);
@ -592,7 +583,7 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
sb.AppendLine(); sb.AppendLine();
sb.AppendLine(" if (context.HasRefHandling)"); sb.AppendLine(" if (context.HasRefHandling)");
sb.AppendLine(" {"); sb.AppendLine(" {");
sb.AppendLine($" var wrapper = context.GetWrapperBySlot(s_wrapperSlot, typeof({ci.FullTypeName}));"); sb.AppendLine($" var wrapper = context.GetWrapper(typeof({ci.FullTypeName}), s_wrapperSlot);");
sb.AppendLine(" var visitIndex = context.ScanVisitIndex++;"); sb.AppendLine(" var visitIndex = context.ScanVisitIndex++;");
sb.AppendLine($" if (!wrapper.{tryTrackMethod}(obj.Id, visitIndex, ref context.NextCacheIndexRef, out var cacheIndex, out var firstVisitIndex))"); sb.AppendLine($" if (!wrapper.{tryTrackMethod}(obj.Id, visitIndex, ref context.NextCacheIndexRef, out var cacheIndex, out var firstVisitIndex))");
sb.AppendLine(" {"); sb.AppendLine(" {");
@ -609,7 +600,7 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
sb.AppendLine(); sb.AppendLine();
sb.AppendLine(" if (context.HasAllRefHandling)"); sb.AppendLine(" if (context.HasAllRefHandling)");
sb.AppendLine(" {"); sb.AppendLine(" {");
sb.AppendLine($" var wrapper = context.GetWrapperBySlot(s_wrapperSlot, typeof({ci.FullTypeName}));"); sb.AppendLine($" var wrapper = context.GetWrapper(typeof({ci.FullTypeName}), s_wrapperSlot);");
sb.AppendLine(" var visitIndex = context.ScanVisitIndex++;"); sb.AppendLine(" var visitIndex = context.ScanVisitIndex++;");
sb.AppendLine(" if (!wrapper.TryTrackInt32(System.Runtime.CompilerServices.RuntimeHelpers.GetHashCode(value), visitIndex, ref context.NextCacheIndexRef, out var cacheIndex, out var firstVisitIndex))"); sb.AppendLine(" if (!wrapper.TryTrackInt32(System.Runtime.CompilerServices.RuntimeHelpers.GetHashCode(value), visitIndex, ref context.NextCacheIndexRef, out var cacheIndex, out var firstVisitIndex))");
sb.AppendLine(" {"); sb.AppendLine(" {");
@ -674,21 +665,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
if (IsMarkerless(p.TypeKind)) if (IsMarkerless(p.TypeKind))
{ {
if (!enableMetadata) if (!enableMetadata)
{
// Per-type metadata disabled — always markerless, no branch
EmitMarkerless(sb, p.TypeKind, a, i); EmitMarkerless(sb, p.TypeKind, a, i);
}
else else
{ EmitPropertyBridge(sb, p.TypeKind, a, i);
sb.AppendLine($"{i}if (context.UseMetadata)");
sb.AppendLine($"{i}{{");
EmitSkip(sb, p.TypeKind, a, p.TypeNameForTypeof, i + " ");
sb.AppendLine($"{i}}}");
sb.AppendLine($"{i}else");
sb.AppendLine($"{i}{{");
EmitMarkerless(sb, p.TypeKind, a, i + " ");
sb.AppendLine($"{i}}}");
}
return; return;
} }
@ -820,10 +799,73 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
} }
} }
/// <summary>
/// Emits a single bridge method call for markerless property types with enableMetadata=true.
/// The bridge method on BinarySerializationContext handles both UseMetadata=true (markered+skip)
/// and UseMetadata=false (markerless) paths internally. Replaces 7-11 lines of generated code with 1 line.
/// </summary>
private static void EmitPropertyBridge(StringBuilder sb, PropertyTypeKind k, string a, string i)
{
var call = k switch
{
PropertyTypeKind.Int32 => $"context.WriteInt32Property({a});",
PropertyTypeKind.Int64 => $"context.WriteInt64Property({a});",
PropertyTypeKind.Boolean => $"context.WriteBoolProperty({a});",
PropertyTypeKind.Double => $"context.WriteFloat64Property({a});",
PropertyTypeKind.Single => $"context.WriteFloat32Property({a});",
PropertyTypeKind.Decimal => $"context.WriteDecimalProperty({a});",
PropertyTypeKind.DateTime => $"context.WriteDateTimeProperty({a});",
PropertyTypeKind.Guid => $"context.WriteGuidProperty({a});",
PropertyTypeKind.Byte => $"context.WriteByteProperty({a});",
PropertyTypeKind.Int16 => $"context.WriteInt16Property({a});",
PropertyTypeKind.UInt16 => $"context.WriteUInt16Property({a});",
PropertyTypeKind.UInt32 => $"context.WriteUInt32Property({a});",
PropertyTypeKind.UInt64 => $"context.WriteUInt64Property({a});",
PropertyTypeKind.Enum => $"context.WriteEnumInt32Property((int){a});",
PropertyTypeKind.TimeSpan => $"context.WriteTimeSpanProperty({a});",
PropertyTypeKind.DateTimeOffset => $"context.WriteDateTimeOffsetProperty({a});",
_ => null
};
if (call != null)
sb.AppendLine($"{i}{call}");
}
/// <summary> /// <summary>
/// Emits direct object write — bypasses GetWrapper + WriteObject entirely. /// Emits direct object write — bypasses GetWrapper + WriteObject entirely.
#region Scan Pass Code Generation #region Scan Pass Code Generation
/// <summary>
/// Compile-time check: will EmitScanProp produce any scan work for this property?
/// When false, the entire block (including PropertyFilter guard) is skipped.
/// </summary>
private static bool HasScanWork(PropInfo p) => p.TypeKind switch
{
PropertyTypeKind.String => p.InterningFlags != 0,
PropertyTypeKind.Complex when p.HasGeneratedWriter => p.ChildNeedsScan,
PropertyTypeKind.Complex => true,
PropertyTypeKind.Collection => HasCollectionScanWork(p),
PropertyTypeKind.Dictionary => HasDictionaryScanWork(p),
_ => false
};
private static bool HasCollectionScanWork(PropInfo p) => p.ElementKind switch
{
PropertyTypeKind.String => p.InterningFlags != 0,
PropertyTypeKind.Complex when p.ElementHasGeneratedWriter && p.CollectionKind != null => p.ElementNeedsScan,
PropertyTypeKind.Complex => true,
_ => false
};
private static bool HasDictionaryScanWork(PropInfo p)
{
if (p.DictKeyKind == PropertyTypeKind.String && p.InterningFlags != 0) return true;
if (p.DictValueKind == PropertyTypeKind.String && p.InterningFlags != 0) return true;
if (p.DictValueKind == PropertyTypeKind.Complex && p.DictValueHasGeneratedWriter) return p.DictValueNeedsScan;
if (p.DictValueKind == PropertyTypeKind.Complex) return true;
return false;
}
/// <summary> /// <summary>
/// Emits scan pass code for a single property. /// Emits scan pass code for a single property.
/// String: interning check + ScanInternString. /// String: interning check + ScanInternString.
@ -833,6 +875,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
/// </summary> /// </summary>
private static void EmitScanProp(StringBuilder sb, PropInfo p, string i, string fullTypeName) private static void EmitScanProp(StringBuilder sb, PropInfo p, string i, string fullTypeName)
{ {
// Compile-time proven: no scan work for this property — skip entirely (including PropertyFilter guard)
if (!HasScanWork(p)) return;
var a = $"obj.{p.Name}"; var a = $"obj.{p.Name}";
// PropertyFilter: must match write pass — if filter skips property, scan must skip too // PropertyFilter: must match write pass — if filter skips property, scan must skip too
@ -1212,118 +1257,29 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
private static void EmitDirectObjectWrite(StringBuilder sb, PropInfo p, string a, string i) private static void EmitDirectObjectWrite(StringBuilder sb, PropInfo p, string a, string i)
{ {
var writer = p.WriterClassName; var writer = p.WriterClassName;
var nextDepth = "depth + 1"; var refSuffix = p.IsIId ? "IId" : "All";
if (p.IsNullable) // Reference type properties can always be null at runtime regardless of nullable annotation
sb.AppendLine($"{i}if ({a} == null) context.WriteByte(BinaryTypeCode.PropertySkip);");
sb.AppendLine($"{i}else if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);");
if (!p.ChildNeedsRefScan && !p.ChildEnableMetadata)
{ {
sb.AppendLine($"{i}if ({a} == null) context.WriteByte(BinaryTypeCode.PropertySkip);"); // Compile-time proven: no ref, no metadata → ZERO branches: always Object + WriteProperties
sb.AppendLine($"{i}else"); sb.AppendLine($"{i}else {{ context.WriteByte(BinaryTypeCode.Object); {writer}.Instance.WriteProperties({a}, context, depth + 1); }}");
sb.AppendLine($"{i}{{"); }
else if (p.ChildNeedsRefScan && !p.ChildEnableMetadata)
{
sb.AppendLine($"{i}else if (context.WriteObjectRefMarker{refSuffix}()) {writer}.Instance.WriteProperties({a}, context, depth + 1);");
}
else if (!p.ChildNeedsRefScan && p.ChildEnableMetadata)
{
sb.AppendLine($"{i}else {{ context.WriteObjectMetaMarker({a}, {writer}.s_wrapperSlot); {writer}.Instance.WriteProperties({a}, context, depth + 1); }}");
} }
else else
{ {
sb.AppendLine($"{i}{{"); sb.AppendLine($"{i}else if (context.WriteObjectFullMarker{refSuffix}({a}, {writer}.s_wrapperSlot)) {writer}.Instance.WriteProperties({a}, context, depth + 1);");
} }
// MaxDepth check — matches WriteObjectGenerated
sb.AppendLine($"{i} if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
if (!p.ChildNeedsRefScan)
{
// Compile-time proven: scan never tracks child → TryConsumeWritePlanEntry always false
if (!p.ChildEnableMetadata)
{
// No ref, no metadata → ZERO branches: always Object
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({a}, context, {nextDepth});");
}
else
{
// No ref, but metadata possible → UseMetadata branch only
sb.AppendLine($"{i} var isFirstMeta_{p.Name} = context.UseMetadata && AcBinarySerializer.BinarySerializationContext<TOutput>.RegisterMetadataType(context.GetWrapperBySlot({writer}.s_wrapperSlot, typeof({p.TypeNameForTypeof})));");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);");
EmitInlineMetadata(sb, p.ChildTypeNameHash, p.ChildPropertyHashes!, $"isFirstMeta_{p.Name}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({a}, context, {nextDepth});");
}
}
else if (!p.ChildEnableMetadata)
{
// Ref tracking possible, no metadata — Object or ObjectRefFirst/ObjectRef
var refGuard = p.IsIId
? "context.HasRefHandling"
: "context.HasAllRefHandling";
sb.AppendLine($"{i} if ({refGuard} && context.TryConsumeWritePlanEntry(out var pe_{p.Name}))");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (!pe_{p.Name}.IsFirst)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRef);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)pe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)pe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({a}, context, {nextDepth});");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({a}, context, {nextDepth});");
sb.AppendLine($"{i} }}");
}
else
{
// Full path: ref tracking + metadata
sb.AppendLine($"{i} var isFirstMeta_{p.Name} = context.UseMetadata && AcBinarySerializer.BinarySerializationContext<TOutput>.RegisterMetadataType(context.GetWrapperBySlot({writer}.s_wrapperSlot, typeof({p.TypeNameForTypeof})));");
var refGuard = p.IsIId
? "context.HasRefHandling"
: "context.HasAllRefHandling";
sb.AppendLine($"{i} if ({refGuard} && context.TryConsumeWritePlanEntry(out var pe_{p.Name}))");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (!pe_{p.Name}.IsFirst)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRef);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)pe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)pe_{p.Name}.CacheMapIndex);");
EmitInlineMetadata(sb, p.ChildTypeNameHash, p.ChildPropertyHashes!, $"isFirstMeta_{p.Name}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)pe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({a}, context, {nextDepth});");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);");
EmitInlineMetadata(sb, p.ChildTypeNameHash, p.ChildPropertyHashes!, $"isFirstMeta_{p.Name}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({a}, context, {nextDepth});");
sb.AppendLine($"{i} }}");
}
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i}}}");
} }
/// <summary> /// <summary>
@ -1351,19 +1307,11 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
{ {
var writer = p.ElementWriterClassName; var writer = p.ElementWriterClassName;
if (p.IsNullable) // Reference type collections can always be null at runtime regardless of nullable annotation
{ sb.AppendLine($"{i}if ({a} == null) context.WriteByte(BinaryTypeCode.PropertySkip);");
sb.AppendLine($"{i}if ({a} == null) context.WriteByte(BinaryTypeCode.PropertySkip);"); sb.AppendLine($"{i}else if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);");
sb.AppendLine($"{i}else if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);"); sb.AppendLine($"{i}else");
sb.AppendLine($"{i}else"); sb.AppendLine($"{i}{{");
sb.AppendLine($"{i}{{");
}
else
{
sb.AppendLine($"{i}if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);");
sb.AppendLine($"{i}else");
sb.AppendLine($"{i}{{");
}
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Array);"); sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Array);");
@ -1409,98 +1357,26 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
sb.AppendLine($"{i} if ({e} == null) {{ context.WriteByte(BinaryTypeCode.Null); continue; }}"); sb.AppendLine($"{i} if ({e} == null) {{ context.WriteByte(BinaryTypeCode.Null); continue; }}");
sb.AppendLine($"{i} if (depth + 1 > context.MaxDepth) {{ context.WriteByte(BinaryTypeCode.Null); continue; }}"); sb.AppendLine($"{i} if (depth + 1 > context.MaxDepth) {{ context.WriteByte(BinaryTypeCode.Null); continue; }}");
if (!p.ElementNeedsRefScan) var elemRefSuffix = p.ElementIsIId ? "IId" : "All";
if (!p.ElementNeedsRefScan && !p.ElementEnableMetadata)
{ {
// Compile-time proven: scan never tracks element → TryConsumeWritePlanEntry always false // Compile-time proven: no ref, no metadata → ZERO branches per element: always Object
if (!p.ElementEnableMetadata) sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
{ sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
// No ref, no metadata → ZERO branches per element: always Object }
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);"); else if (p.ElementNeedsRefScan && !p.ElementEnableMetadata)
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});"); {
} sb.AppendLine($"{i} if (context.WriteObjectRefMarker{elemRefSuffix}()) {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
else }
{ else if (!p.ElementNeedsRefScan && p.ElementEnableMetadata)
// No ref, but metadata possible → UseMetadata branch only {
sb.AppendLine($"{i} var isFirstMeta_e_{p.Name} = context.UseMetadata && AcBinarySerializer.BinarySerializationContext<TOutput>.RegisterMetadataType(context.GetWrapperBySlot({writer}.s_wrapperSlot, typeof({p.ElementFullTypeName})));"); sb.AppendLine($"{i} context.WriteObjectMetaMarker({e}, {writer}.s_wrapperSlot);");
sb.AppendLine($"{i} if (context.UseMetadata)"); sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);");
EmitInlineMetadata(sb, p.ElementTypeNameHash, p.ElementPropertyHashes!, $"isFirstMeta_e_{p.Name}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
}
} }
else else
{ {
// Inline ref tracking sb.AppendLine($"{i} if (context.WriteObjectFullMarker{elemRefSuffix}({e}, {writer}.s_wrapperSlot)) {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
var elemRefGuard = p.ElementIsIId
? "context.HasRefHandling"
: "context.HasAllRefHandling";
if (!p.ElementEnableMetadata)
{
// Ref tracking possible, no metadata — Object or ObjectRefFirst/ObjectRef
sb.AppendLine($"{i} if ({elemRefGuard} && context.TryConsumeWritePlanEntry(out var epe_{p.Name}))");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (!epe_{p.Name}.IsFirst)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRef);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)epe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)epe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
sb.AppendLine($"{i} }}");
}
else
{
// Full path: ref tracking + metadata
sb.AppendLine($"{i} var isFirstMeta_e_{p.Name} = context.UseMetadata && AcBinarySerializer.BinarySerializationContext<TOutput>.RegisterMetadataType(context.GetWrapperBySlot({writer}.s_wrapperSlot, typeof({p.ElementFullTypeName})));");
sb.AppendLine($"{i} if ({elemRefGuard} && context.TryConsumeWritePlanEntry(out var epe_{p.Name}))");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (!epe_{p.Name}.IsFirst)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRef);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)epe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)epe_{p.Name}.CacheMapIndex);");
EmitInlineMetadata(sb, p.ElementTypeNameHash, p.ElementPropertyHashes!, $"isFirstMeta_e_{p.Name}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)epe_{p.Name}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);");
EmitInlineMetadata(sb, p.ElementTypeNameHash, p.ElementPropertyHashes!, $"isFirstMeta_e_{p.Name}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({e}, context, nextDepth_{p.Name});");
sb.AppendLine($"{i} }}");
}
} }
sb.AppendLine($"{i} }}"); sb.AppendLine($"{i} }}");
@ -1587,19 +1463,11 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
var keyType = p.DictKeyTypeName ?? "object"; var keyType = p.DictKeyTypeName ?? "object";
var valType = p.DictValueTypeName ?? "object"; var valType = p.DictValueTypeName ?? "object";
if (p.IsNullable) // Reference type dictionaries can always be null at runtime regardless of nullable annotation
{ sb.AppendLine($"{i}if ({a} == null) context.WriteByte(BinaryTypeCode.PropertySkip);");
sb.AppendLine($"{i}if ({a} == null) context.WriteByte(BinaryTypeCode.PropertySkip);"); sb.AppendLine($"{i}else if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);");
sb.AppendLine($"{i}else if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);"); sb.AppendLine($"{i}else");
sb.AppendLine($"{i}else"); sb.AppendLine($"{i}{{");
sb.AppendLine($"{i}{{");
}
else
{
sb.AppendLine($"{i}if (depth > context.MaxDepth) context.WriteByte(BinaryTypeCode.Null);");
sb.AppendLine($"{i}else");
sb.AppendLine($"{i}{{");
}
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Dictionary);"); sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Dictionary);");
sb.AppendLine($"{i} context.WriteVarUInt((uint){a}.Count);"); sb.AppendLine($"{i} context.WriteVarUInt((uint){a}.Count);");
@ -1663,111 +1531,34 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
/// <summary> /// <summary>
/// Emits inline write for a Complex+SGen dictionary value with ref tracking and metadata support. /// Emits inline write for a Complex+SGen dictionary value with ref tracking and metadata support.
/// Mirrors EmitDirectCollectionWrite per-element write pattern. /// Delegates marker logic to runtime WriteObjectRefMarker/MetaMarker/FullMarker bridge.
/// </summary> /// </summary>
private static void EmitDictValueComplexWrite(StringBuilder sb, PropInfo p, string v, string s, string i) private static void EmitDictValueComplexWrite(StringBuilder sb, PropInfo p, string v, string s, string i)
{ {
var writer = p.DictValueWriterClassName!; var writer = p.DictValueWriterClassName!;
var valType = p.DictValueTypeName!;
sb.AppendLine($"{i}if ({v} == null) {{ context.WriteByte(BinaryTypeCode.Null); }}"); sb.AppendLine($"{i}if ({v} == null) {{ context.WriteByte(BinaryTypeCode.Null); }}");
sb.AppendLine($"{i}else if (nd_{s} > context.MaxDepth) {{ context.WriteByte(BinaryTypeCode.Null); }}"); sb.AppendLine($"{i}else if (nd_{s} > context.MaxDepth) {{ context.WriteByte(BinaryTypeCode.Null); }}");
sb.AppendLine($"{i}else");
sb.AppendLine($"{i}{{");
if (!p.DictValueNeedsRefScan) var dvRefSuffix = p.DictValueIsIId ? "IId" : "All";
if (!p.DictValueNeedsRefScan && !p.DictValueEnableMetadata)
{ {
if (!p.DictValueEnableMetadata) // No ref, no metadata → always Object
{ sb.AppendLine($"{i}else {{ context.WriteByte(BinaryTypeCode.Object); {writer}.Instance.WriteProperties({v}, context, nd_{s}); }}");
// No ref, no metadata → always Object }
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);"); else if (p.DictValueNeedsRefScan && !p.DictValueEnableMetadata)
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({v}, context, nd_{s});"); {
} sb.AppendLine($"{i}else if (context.WriteObjectRefMarker{dvRefSuffix}()) {writer}.Instance.WriteProperties({v}, context, nd_{s});");
else }
{ else if (!p.DictValueNeedsRefScan && p.DictValueEnableMetadata)
// No ref, metadata possible {
sb.AppendLine($"{i} var isFirstMeta_dv_{s} = context.UseMetadata && AcBinarySerializer.BinarySerializationContext<TOutput>.RegisterMetadataType(context.GetWrapperBySlot({writer}.s_wrapperSlot, typeof({valType})));"); sb.AppendLine($"{i}else {{ context.WriteObjectMetaMarker({v}, {writer}.s_wrapperSlot); {writer}.Instance.WriteProperties({v}, context, nd_{s}); }}");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);");
EmitInlineMetadata(sb, p.DictValueTypeNameHash, p.DictValuePropertyHashes!, $"isFirstMeta_dv_{s}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({v}, context, nd_{s});");
}
} }
else else
{ {
var dvRefGuard = p.DictValueIsIId sb.AppendLine($"{i}else if (context.WriteObjectFullMarker{dvRefSuffix}({v}, {writer}.s_wrapperSlot)) {writer}.Instance.WriteProperties({v}, context, nd_{s});");
? "context.HasRefHandling"
: "context.HasAllRefHandling";
if (!p.DictValueEnableMetadata)
{
// Ref tracking, no metadata
sb.AppendLine($"{i} if ({dvRefGuard} && context.TryConsumeWritePlanEntry(out var dpe_{s}))");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (!dpe_{s}.IsFirst)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRef);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)dpe_{s}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)dpe_{s}.CacheMapIndex);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({v}, context, nd_{s});");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({v}, context, nd_{s});");
sb.AppendLine($"{i} }}");
}
else
{
// Full path: ref tracking + metadata
sb.AppendLine($"{i} var isFirstMeta_dv_{s} = context.UseMetadata && AcBinarySerializer.BinarySerializationContext<TOutput>.RegisterMetadataType(context.GetWrapperBySlot({writer}.s_wrapperSlot, typeof({valType})));");
sb.AppendLine($"{i} if ({dvRefGuard} && context.TryConsumeWritePlanEntry(out var dpe_{s}))");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (!dpe_{s}.IsFirst)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRef);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)dpe_{s}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)dpe_{s}.CacheMapIndex);");
EmitInlineMetadata(sb, p.DictValueTypeNameHash, p.DictValuePropertyHashes!, $"isFirstMeta_dv_{s}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectRefFirst);");
sb.AppendLine($"{i} context.WriteVarUInt((uint)dpe_{s}.CacheMapIndex);");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({v}, context, nd_{s});");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} if (context.UseMetadata)");
sb.AppendLine($"{i} {{");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);");
EmitInlineMetadata(sb, p.DictValueTypeNameHash, p.DictValuePropertyHashes!, $"isFirstMeta_dv_{s}", i + " ");
sb.AppendLine($"{i} }}");
sb.AppendLine($"{i} else");
sb.AppendLine($"{i} context.WriteByte(BinaryTypeCode.Object);");
sb.AppendLine($"{i} {writer}.Instance.WriteProperties({v}, context, nd_{s});");
sb.AppendLine($"{i} }}");
}
} }
sb.AppendLine($"{i}}}");
} }
private static void EmitSkip(StringBuilder sb, PropertyTypeKind k, string a, string typeName, string i) private static void EmitSkip(StringBuilder sb, PropertyTypeKind k, string a, string typeName, string i)
@ -2110,11 +1901,14 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
{ {
// Compile-time proven: child never tracked → only Object (+ Null for nullable) in stream // Compile-time proven: child never tracked → only Object (+ Null for nullable) in stream
// Inline: parent creates instance, calls ReadProperties directly (mirrors EmitDirectObjectWrite) // Inline: parent creates instance, calls ReadProperties directly (mirrors EmitDirectObjectWrite)
// FixObj slot bytes (0..SlotCount-1) are also valid markers here — populate slot cache
// to keep _nextRuntimeSlot in sync with the serializer's _nextTypeSlot counter.
if (p.IsNullable) if (p.IsNullable)
{ {
sb.AppendLine($"{i}if ({tc} == BinaryTypeCode.Null) {{ /* null */ }}"); sb.AppendLine($"{i}if ({tc} == BinaryTypeCode.Null) {{ /* null */ }}");
sb.AppendLine($"{i}else"); sb.AppendLine($"{i}else");
sb.AppendLine($"{i}{{"); sb.AppendLine($"{i}{{");
sb.AppendLine($"{i} if ({tc} < BinaryTypeCode.Object) {{ context.GetWrapper(typeof({p.TypeNameForTypeof}), {tc}); if ({tc} >= context._nextRuntimeSlot) context._nextRuntimeSlot = {tc} + 1; }}");
sb.AppendLine($"{i} var rc_{p.Name} = new {p.TypeNameForTypeof}();"); sb.AppendLine($"{i} var rc_{p.Name} = new {p.TypeNameForTypeof}();");
sb.AppendLine($"{i} {reader}.Instance.ReadProperties(rc_{p.Name}, context, {nd});"); sb.AppendLine($"{i} {reader}.Instance.ReadProperties(rc_{p.Name}, context, {nd});");
sb.AppendLine($"{i} {a} = rc_{p.Name};"); sb.AppendLine($"{i} {a} = rc_{p.Name};");
@ -2122,8 +1916,9 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
} }
else else
{ {
// ZERO branches — tc is always Object // ZERO branches — tc is always Object or FixObj
sb.AppendLine($"{i}{{"); sb.AppendLine($"{i}{{");
sb.AppendLine($"{i} if ({tc} < BinaryTypeCode.Object) {{ context.GetWrapper(typeof({p.TypeNameForTypeof}), {tc}); if ({tc} >= context._nextRuntimeSlot) context._nextRuntimeSlot = {tc} + 1; }}");
sb.AppendLine($"{i} var rc_{p.Name} = new {p.TypeNameForTypeof}();"); sb.AppendLine($"{i} var rc_{p.Name} = new {p.TypeNameForTypeof}();");
sb.AppendLine($"{i} {reader}.Instance.ReadProperties(rc_{p.Name}, context, {nd});"); sb.AppendLine($"{i} {reader}.Instance.ReadProperties(rc_{p.Name}, context, {nd});");
sb.AppendLine($"{i} {a} = rc_{p.Name};"); sb.AppendLine($"{i} {a} = rc_{p.Name};");
@ -2132,7 +1927,7 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
} }
else else
{ {
// Ref tracking possible — Object/ObjectRefFirst/ObjectRef dispatch // Ref tracking possible — Object/ObjectRefFirst/ObjectRef/FixObj dispatch
// Inline: parent creates instance + handles cache registration // Inline: parent creates instance + handles cache registration
sb.AppendLine($"{i}if ({tc} == BinaryTypeCode.Object)"); sb.AppendLine($"{i}if ({tc} == BinaryTypeCode.Object)");
sb.AppendLine($"{i}{{"); sb.AppendLine($"{i}{{");
@ -2152,6 +1947,16 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
sb.AppendLine($"{i}else if ({tc} == BinaryTypeCode.Null) {{ /* null */ }}"); sb.AppendLine($"{i}else if ({tc} == BinaryTypeCode.Null) {{ /* null */ }}");
sb.AppendLine($"{i}else if ({tc} == BinaryTypeCode.ObjectRef)"); sb.AppendLine($"{i}else if ({tc} == BinaryTypeCode.ObjectRef)");
sb.AppendLine($"{i} {a} = {cast}context.GetInternedObject((int)context.ReadVarUInt())!;"); sb.AppendLine($"{i} {a} = {cast}context.GetInternedObject((int)context.ReadVarUInt())!;");
// FixObj slot (0..SlotCount-1): same type via FixObj marker (non-meta, non-ref mode)
// Populate slot cache to keep _nextRuntimeSlot in sync with the serializer.
sb.AppendLine($"{i}else if ({tc} < BinaryTypeCode.Object)");
sb.AppendLine($"{i}{{");
sb.AppendLine($"{i} context.GetWrapper(typeof({p.TypeNameForTypeof}), {tc});");
sb.AppendLine($"{i} if ({tc} >= context._nextRuntimeSlot) context._nextRuntimeSlot = {tc} + 1;");
sb.AppendLine($"{i} var rc_{p.Name} = new {p.TypeNameForTypeof}();");
sb.AppendLine($"{i} {reader}.Instance.ReadProperties(rc_{p.Name}, context, {nd});");
sb.AppendLine($"{i} {a} = rc_{p.Name};");
sb.AppendLine($"{i}}}");
} }
} }
@ -2465,10 +2270,12 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
if (!needsRefScan) if (!needsRefScan)
{ {
// No ref tracking → only Object or Null in stream — inline ReadProperties // No ref tracking → only Object, FixObj or Null in stream — inline ReadProperties
// FixObj slot: populate slot cache to keep _nextRuntimeSlot in sync.
sb.AppendLine($"{i}if ({etc} == BinaryTypeCode.Null) {{ {assignNull} }}"); sb.AppendLine($"{i}if ({etc} == BinaryTypeCode.Null) {{ {assignNull} }}");
sb.AppendLine($"{i}else"); sb.AppendLine($"{i}else");
sb.AppendLine($"{i}{{"); sb.AppendLine($"{i}{{");
sb.AppendLine($"{i} if ({etc} < BinaryTypeCode.Object) {{ context.GetWrapper(typeof({elemTypeName}), {etc}); if ({etc} >= context._nextRuntimeSlot) context._nextRuntimeSlot = {etc} + 1; }}");
sb.AppendLine($"{i} var re_{propSuffix} = new {elemTypeName}();"); sb.AppendLine($"{i} var re_{propSuffix} = new {elemTypeName}();");
sb.AppendLine($"{i} {reader}.Instance.ReadProperties(re_{propSuffix}, context, nd_{propSuffix});"); sb.AppendLine($"{i} {reader}.Instance.ReadProperties(re_{propSuffix}, context, nd_{propSuffix});");
sb.AppendLine($"{i} {assignExpr}"); sb.AppendLine($"{i} {assignExpr}");
@ -2476,7 +2283,7 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
} }
else else
{ {
// Object hot path first, then ref markers — inline ReadProperties // Object hot path first, then ref markers, then FixObj — inline ReadProperties
sb.AppendLine($"{i}if ({etc} == BinaryTypeCode.Object)"); sb.AppendLine($"{i}if ({etc} == BinaryTypeCode.Object)");
sb.AppendLine($"{i}{{"); sb.AppendLine($"{i}{{");
sb.AppendLine($"{i} var re_{propSuffix} = new {elemTypeName}();"); sb.AppendLine($"{i} var re_{propSuffix} = new {elemTypeName}();");
@ -2497,6 +2304,16 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
sb.AppendLine($"{i} col_{propSuffix}[{indexVar}] = {elemCast}context.GetInternedObject((int)context.ReadVarUInt())!;"); sb.AppendLine($"{i} col_{propSuffix}[{indexVar}] = {elemCast}context.GetInternedObject((int)context.ReadVarUInt())!;");
else else
sb.AppendLine($"{i} col_{propSuffix}.{addCall}({elemCast}context.GetInternedObject((int)context.ReadVarUInt())!);"); sb.AppendLine($"{i} col_{propSuffix}.{addCall}({elemCast}context.GetInternedObject((int)context.ReadVarUInt())!);");
// FixObj slot (0..SlotCount-1): same type via FixObj marker
// Populate slot cache to keep _nextRuntimeSlot in sync with the serializer.
sb.AppendLine($"{i}else if ({etc} < BinaryTypeCode.Object)");
sb.AppendLine($"{i}{{");
sb.AppendLine($"{i} context.GetWrapper(typeof({elemTypeName}), {etc});");
sb.AppendLine($"{i} if ({etc} >= context._nextRuntimeSlot) context._nextRuntimeSlot = {etc} + 1;");
sb.AppendLine($"{i} var re_{propSuffix} = new {elemTypeName}();");
sb.AppendLine($"{i} {reader}.Instance.ReadProperties(re_{propSuffix}, context, nd_{propSuffix});");
sb.AppendLine($"{i} {assignExpr}");
sb.AppendLine($"{i}}}");
} }
} }
@ -2749,21 +2566,8 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
var needsInternScan = false; var needsInternScan = false;
// Check properties for string interning or complex children // Check properties for string interning or complex children
foreach (var member in type.GetMembers()) foreach (var p in GetAllSerializablePropertySymbols(type))
{ {
if (member is not IPropertySymbol p ||
p.DeclaredAccessibility != Accessibility.Public ||
p.GetMethod == null || p.SetMethod == null ||
p.IsIndexer || p.IsStatic)
continue;
var hasIgnore = p.GetAttributes().Any(a =>
{
var name = a.AttributeClass?.Name ?? "";
return name == "JsonIgnoreAttribute" || name == "IgnoreMemberAttribute" || name == "BsonIgnoreAttribute";
});
if (hasIgnore) continue;
// Early exit: if all flags are already true, no need to check more properties // Early exit: if all flags are already true, no need to check more properties
if (needsIdScan && needsAllRefScan && needsInternScan) break; if (needsIdScan && needsAllRefScan && needsInternScan) break;
@ -2850,35 +2654,62 @@ public class AcBinarySourceGenerator : IIncrementalGenerator
/// <summary> /// <summary>
/// Computes FNV-1a hashes for all serializable properties of a child type. /// Computes FNV-1a hashes for all serializable properties of a child type.
/// Property filtering and ordering matches runtime TypeMetadataBase exactly: /// Property filtering and ordering matches runtime TypeMetadataBase exactly:
/// public get+set, non-indexer, non-static, no ignore attributes, sorted alphabetically. /// derived → base, each level sorted alphabetically, with ignore attribute filtering.
/// </summary> /// </summary>
private static int[] ComputeChildPropertyHashes(ITypeSymbol resolvedType) private static int[] ComputeChildPropertyHashes(ITypeSymbol resolvedType)
{ {
var propNames = new List<string>(); // Use hierarchy-walking helper — order matches runtime TypeMetadataBase
foreach (var member in resolvedType.GetMembers()) var props = GetAllSerializablePropertySymbols(resolvedType);
{ return props.Select(p => ComputeFnvHash(p.Name)).ToArray();
if (member is IPropertySymbol cp &&
cp.DeclaredAccessibility == Accessibility.Public &&
cp.GetMethod != null && cp.SetMethod != null &&
!cp.IsIndexer && !cp.IsStatic)
{
var hasIgnore = cp.GetAttributes().Any(a =>
{
var name = a.AttributeClass?.Name ?? "";
return name == "JsonIgnoreAttribute" || name == "IgnoreMemberAttribute" || name == "BsonIgnoreAttribute";
});
if (hasIgnore) continue;
propNames.Add(cp.Name);
}
}
propNames.Sort(StringComparer.Ordinal);
return propNames.Select(ComputeFnvHash).ToArray();
} }
#endregion #endregion
/// <summary>
/// Collects all serializable property symbols from the full inheritance hierarchy.
/// Order matches runtime TypeMetadataBase.GetUnfilteredProperties exactly:
/// derived → base, each level sorted alphabetically by name.
/// Filters: public, get+set, non-indexer, non-static, no ignore attributes.
/// Deduplicates by name (most-derived override wins).
/// </summary>
private static List<IPropertySymbol> GetAllSerializablePropertySymbols(ITypeSymbol typeSymbol)
{
var result = new List<IPropertySymbol>();
var seen = new HashSet<string>();
for (var currentType = typeSymbol as INamedTypeSymbol;
currentType != null && currentType.SpecialType != SpecialType.System_Object;
currentType = currentType.BaseType)
{
var levelProps = new List<IPropertySymbol>();
foreach (var member in currentType.GetMembers())
{
if (member is IPropertySymbol p &&
p.DeclaredAccessibility == Accessibility.Public &&
p.GetMethod != null && p.SetMethod != null &&
!p.IsIndexer && !p.IsStatic &&
seen.Add(p.Name)) // dedup: most-derived wins
{
var hasIgnore = p.GetAttributes().Any(a =>
{
var name = a.AttributeClass?.Name ?? "";
return name == "JsonIgnoreAttribute" || name == "IgnoreMemberAttribute" || name == "BsonIgnoreAttribute";
});
if (hasIgnore) continue;
levelProps.Add(p);
}
}
// Sort each level alphabetically — matches runtime OrderBy(p => p.Name, Ordinal)
levelProps.Sort((a, b) => string.Compare(a.Name, b.Name, StringComparison.Ordinal));
result.AddRange(levelProps);
}
return result;
}
#region Type analysis #region Type analysis
private static bool IsNullableVT(ITypeSymbol t) => private static bool IsNullableVT(ITypeSymbol t) =>

View File

@ -8,15 +8,15 @@
<Import Project="..//AyCode.Core.targets" /> <Import Project="..//AyCode.Core.targets" />
<ItemGroup> <ItemGroup>
<PackageReference Include="coverlet.collector" Version="6.0.4"> <PackageReference Include="coverlet.collector" Version="8.0.1">
<PrivateAssets>all</PrivateAssets> <PrivateAssets>all</PrivateAssets>
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets> <IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
</PackageReference> </PackageReference>
<PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" />
<PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.0.1" /> <PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.3.0" />
<PackageReference Include="MSTest.TestAdapter" Version="4.0.2" /> <PackageReference Include="MSTest.TestAdapter" Version="4.1.0" />
<PackageReference Include="MSTest.TestFramework" Version="4.0.2" /> <PackageReference Include="MSTest.TestFramework" Version="4.1.0" />
<PackageReference Include="Newtonsoft.Json" Version="13.0.3" /> <PackageReference Include="Newtonsoft.Json" Version="13.0.3" />
</ItemGroup> </ItemGroup>

View File

@ -15,11 +15,11 @@
<PackageReference Include="MessagePack" Version="3.1.4" /> <PackageReference Include="MessagePack" Version="3.1.4" />
<PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" />
<PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.0.1" /> <PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.3.0" />
<PackageReference Include="MongoDB.Bson" Version="3.5.2" /> <PackageReference Include="MongoDB.Bson" Version="3.5.2" />
<PackageReference Include="MSTest.TestAdapter" Version="4.0.2" /> <PackageReference Include="MSTest.TestAdapter" Version="4.1.0" />
<PackageReference Include="MSTest.TestFramework" Version="4.0.2" /> <PackageReference Include="MSTest.TestFramework" Version="4.1.0" />
<PackageReference Include="coverlet.collector" Version="6.0.4"> <PackageReference Include="coverlet.collector" Version="8.0.1">
<PrivateAssets>all</PrivateAssets> <PrivateAssets>all</PrivateAssets>
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets> <IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
</PackageReference> </PackageReference>
@ -29,9 +29,7 @@
<ItemGroup> <ItemGroup>
<ProjectReference Include="..\AyCode.Core.Server\AyCode.Core.Server.csproj" /> <ProjectReference Include="..\AyCode.Core.Server\AyCode.Core.Server.csproj" />
<ProjectReference Include="..\AyCode.Core\AyCode.Core.csproj" /> <ProjectReference Include="..\AyCode.Core\AyCode.Core.csproj" />
<ProjectReference Include="..\AyCode.Core.Serializers.SourceGenerator\AyCode.Core.Serializers.SourceGenerator.csproj" <ProjectReference Include="..\AyCode.Core.Serializers.SourceGenerator\AyCode.Core.Serializers.SourceGenerator.csproj" OutputItemType="Analyzer" ReferenceOutputAssembly="false" />
OutputItemType="Analyzer"
ReferenceOutputAssembly="false" />
<ProjectReference Include="..\AyCode.Entities.Server\AyCode.Entities.Server.csproj" /> <ProjectReference Include="..\AyCode.Entities.Server\AyCode.Entities.Server.csproj" />
<ProjectReference Include="..\AyCode.Entities\AyCode.Entities.csproj" /> <ProjectReference Include="..\AyCode.Entities\AyCode.Entities.csproj" />
<ProjectReference Include="..\AyCode.Interfaces.Server\AyCode.Interfaces.Server.csproj" /> <ProjectReference Include="..\AyCode.Interfaces.Server\AyCode.Interfaces.Server.csproj" />

View File

@ -13,7 +13,7 @@ public class AcBinarySerializerBasicTests
{ {
var result = AcBinarySerializer.Serialize<object?>(null); var result = AcBinarySerializer.Serialize<object?>(null);
Assert.AreEqual(1, result.Length); Assert.AreEqual(1, result.Length);
Assert.AreEqual((byte)0, result[0]); Assert.AreEqual(BinaryTypeCode.Null, result[0]);
} }
[TestMethod] [TestMethod]

View File

@ -247,62 +247,62 @@ public class AcBinarySerializerDiagnosticTests
}; };
var binary = stockTaking.ToBinary(); var binary = stockTaking.ToBinary();
// Log the binary structure // Log the binary structure
Console.WriteLine($"Binary length: {binary.Length}"); Console.WriteLine($"Binary length: {binary.Length}");
Console.WriteLine($"Binary hex: {string.Join(" ", binary.Select(b => b.ToString("X2")))}");
// Parse the header manually to understand structure
// === HEADER PARSING (using BinaryTypeCode constants) ===
var pos = 0; var pos = 0;
var version = binary[pos++]; var version = binary[pos++];
Console.WriteLine($"Version: {version}"); Console.WriteLine($"Version: {version}");
var marker = binary[pos++]; var headerFlags = binary[pos++];
Console.WriteLine($"Marker: 0x{marker:X2}"); Console.WriteLine($"Header flags: 0x{headerFlags:X2}");
// Skip any header data (strings interning, etc.) bool hasMetadata = (headerFlags & BinaryTypeCode.HeaderFlag_Metadata) != 0;
// New format uses PropertyIndex directly - no metadata header with property names bool hasRefOnlyId = (headerFlags & BinaryTypeCode.HeaderFlag_RefHandling_OnlyId) != 0;
bool hasRefAll = (headerFlags & BinaryTypeCode.HeaderFlag_RefHandling_All) != 0;
// Find Object marker (0x19) or ObjectWithMetadata marker (0x1F) bool hasCacheCount = (headerFlags & BinaryTypeCode.HeaderFlag_HasCacheCount) != 0;
while (pos < binary.Length && binary[pos] != 0x19 && binary[pos] != 0x1F) Console.WriteLine($" Metadata={hasMetadata}, RefOnlyId={hasRefOnlyId}, RefAll={hasRefAll}, HasCacheCount={hasCacheCount}");
if (hasCacheCount)
{ {
pos++; var ccByte = binary[pos];
int cacheCount = (ccByte & 0x80) == 0 ? ccByte : (ccByte & 0x7F) | (binary[pos + 1] << 7);
pos += (ccByte & 0x80) == 0 ? 1 : 2;
Console.WriteLine($"Cache count: {cacheCount}");
} }
Console.WriteLine($"\n=== BODY (starts at position {pos}) ==="); Console.WriteLine($"\n=== BODY (starts at position {pos}) ===");
// The body should start with Object (0x19) or ObjectWithMetadata (0x1F) marker // Read the object marker — can be FixObj slot (0..SlotCount-1) or explicit marker
var bodyStart = pos;
var objectMarker = binary[pos++]; var objectMarker = binary[pos++];
Console.WriteLine($"Object marker: 0x{objectMarker:X2} (0x19=Object, 0x1F=ObjectWithMetadata)"); bool isFixObj = objectMarker < BinaryTypeCode.SlotCount;
Assert.IsTrue(objectMarker == 0x19 || objectMarker == 0x1F, Console.WriteLine($"Object marker: 0x{objectMarker:X2} (FixObj={isFixObj}, " +
$"Object marker should be 0x19 or 0x1F, got 0x{objectMarker:X2}"); $"Object=0x{BinaryTypeCode.Object:X2}, ObjectRefFirst=0x{BinaryTypeCode.ObjectRefFirst:X2}, " +
$"ObjectWithMetadata=0x{BinaryTypeCode.ObjectWithMetadata:X2})");
// If ObjectWithMetadata (0x1F), skip inline metadata Assert.IsTrue(
if (objectMarker == 0x1F) isFixObj
|| objectMarker == BinaryTypeCode.Object
|| objectMarker == BinaryTypeCode.ObjectWithMetadata
|| objectMarker == BinaryTypeCode.ObjectRefFirst
|| objectMarker == BinaryTypeCode.ObjectWithMetadataRefFirst,
$"Expected an object marker, got 0x{objectMarker:X2}");
// If ObjectWithMetadata, skip inline metadata
if (objectMarker is BinaryTypeCode.ObjectWithMetadata or BinaryTypeCode.ObjectWithMetadataRefFirst)
{ {
// propNameHash (4 bytes)
var propNameHash = BitConverter.ToInt32(binary, pos); var propNameHash = BitConverter.ToInt32(binary, pos);
pos += 4; pos += 4;
Console.WriteLine($"PropNameHash: 0x{propNameHash:X8}"); Console.WriteLine($"PropNameHash: 0x{propNameHash:X8}");
// First occurrence: propCount (VarUInt) + property hashes var pcByte = binary[pos];
// VarUInt: if top bit is set, continue reading int inlinePropCount = (pcByte & 0x80) == 0 ? pcByte : (pcByte & 0x7F) | (binary[pos + 1] << 7);
var propCountByte = binary[pos]; pos += (pcByte & 0x80) == 0 ? 1 : 2;
int inlinePropCount;
if ((propCountByte & 0x80) == 0)
{
inlinePropCount = propCountByte;
pos++;
}
else
{
// Multi-byte VarUInt - simplified 2-byte parsing
inlinePropCount = (propCountByte & 0x7F) | (binary[pos + 1] << 7);
pos += 2;
}
Console.WriteLine($"Inline metadata propCount: {inlinePropCount}"); Console.WriteLine($"Inline metadata propCount: {inlinePropCount}");
// Skip property hashes (4 bytes each)
for (int h = 0; h < inlinePropCount; h++) for (int h = 0; h < inlinePropCount; h++)
{ {
var hash = BitConverter.ToInt32(binary, pos); var hash = BitConverter.ToInt32(binary, pos);
@ -311,68 +311,57 @@ public class AcBinarySerializerDiagnosticTests
} }
} }
// Read ref ID (if reference handling is enabled) // If RefFirst marker, read VarUInt cache index
// VarInt: if top bit is set, continue reading if (objectMarker is BinaryTypeCode.ObjectRefFirst or BinaryTypeCode.ObjectWithMetadataRefFirst)
var refIdByte = binary[pos];
int refId;
if ((refIdByte & 0x80) == 0)
{ {
refId = refIdByte; var rByte = binary[pos];
pos++; int refCacheIndex = (rByte & 0x80) == 0 ? rByte : (rByte & 0x7F) | (binary[pos + 1] << 7);
pos += (rByte & 0x80) == 0 ? 1 : 2;
Console.WriteLine($"RefCacheIndex: {refCacheIndex}");
} }
else
{
// Multi-byte VarInt - simplified parsing
refId = -1;
pos += 2; // Skip for now
}
Console.WriteLine($"RefId: {refId}");
// Read property count in body // Markerless format: properties are written in order, no property count header
var bodyPropCount = binary[pos++]; Console.WriteLine($"\n=== BODY PROPERTIES (remaining {binary.Length - pos} bytes) ===");
Console.WriteLine($"Property count in body: {bodyPropCount}"); int propIdx = 0;
while (pos < binary.Length)
Console.WriteLine($"\n=== BODY PROPERTIES ===");
for (int i = 0; i < bodyPropCount && pos < binary.Length; i++)
{ {
// Log the value (no PropertyIndex in inline metadata mode — properties are in hash order) var b = binary[pos];
var valueType = binary[pos]; if (b == BinaryTypeCode.DateTime)
if (valueType == 0x14) // DateTime
{ {
Console.WriteLine($" Property [{i}]: DateTime (9 bytes)"); Console.WriteLine($" Property [{propIdx}]: DateTime (1+8 bytes)");
pos += 10; // type + 9 bytes pos += 9; // marker + 8 bytes ticks
} }
else if (valueType >= 0xC0 && valueType <= 0xFF) // TinyInt (192-255) else if (BinaryTypeCode.IsTinyInt(b))
{ {
var tinyValue = valueType - 192 - 16; Console.WriteLine($" Property [{propIdx}]: TinyInt value={BinaryTypeCode.DecodeTinyInt(b)} (0x{b:X2})");
Console.WriteLine($" Property [{i}]: TinyInt value: {tinyValue}");
pos += 1; pos += 1;
} }
else if (valueType == 0x02) // False (BinaryTypeCode.False = 2) else if (b == BinaryTypeCode.False)
{ {
Console.WriteLine($" Property [{i}]: Boolean: false"); Console.WriteLine($" Property [{propIdx}]: Boolean: false");
pos += 1; pos += 1;
} }
else if (valueType == 0x01) // True (BinaryTypeCode.True = 1) else if (b == BinaryTypeCode.True)
{ {
Console.WriteLine($" Property [{i}]: Boolean: true"); Console.WriteLine($" Property [{propIdx}]: Boolean: true");
pos += 1; pos += 1;
} }
else if (valueType == 0x00) // Null else if (b == BinaryTypeCode.Null)
{ {
Console.WriteLine($" Property [{i}]: Null"); Console.WriteLine($" Property [{propIdx}]: Null");
pos += 1; pos += 1;
} }
else if (valueType == 0xBF) // PropertySkip else if (b == BinaryTypeCode.PropertySkip)
{ {
Console.WriteLine($" Property [{i}]: PropertySkip (default/null)"); Console.WriteLine($" Property [{propIdx}]: PropertySkip (default/null)");
pos += 1; pos += 1;
} }
else else
{ {
Console.WriteLine($" Property [{i}]: Unknown type: 0x{valueType:X2}"); Console.WriteLine($" Property [{propIdx}]: Unknown type: 0x{b:X2}");
break; break;
} }
propIdx++;
} }
// Deserialize and verify // Deserialize and verify

View File

@ -22,13 +22,11 @@ namespace AyCode.Core.Tests.Serialization;
[TestClass] [TestClass]
public class AcBinarySerializerIIdReferenceTests public class AcBinarySerializerIIdReferenceTests
{ {
// BinaryTypeCode.ObjectRef = 27
private const byte ObjectRefTypeCode = 27;
#region Helper Methods #region Helper Methods
/// <summary> /// <summary>
/// Counts occurrences of ObjectRef (0x1B = 27) in binary data. /// Counts occurrences of ObjectRef in binary data.
/// Uses BinaryTypeCode.ObjectRef constant to stay in sync with format changes.
/// </summary> /// </summary>
private static int CountObjectRefs(byte[] binary, bool writeBinaryToConsole = true) private static int CountObjectRefs(byte[] binary, bool writeBinaryToConsole = true)
{ {
@ -37,7 +35,7 @@ public class AcBinarySerializerIIdReferenceTests
var count = 0; var count = 0;
for (var i = 0; i < binary.Length; i++) for (var i = 0; i < binary.Length; i++)
{ {
if (binary[i] == ObjectRefTypeCode) if (binary[i] == BinaryTypeCode.ObjectRef)
count++; count++;
} }
return count; return count;
@ -151,7 +149,10 @@ public class AcBinarySerializerIIdReferenceTests
{ {
case ReferenceHandlingMode.None: case ReferenceHandlingMode.None:
//none esetén miért nincs infinite loop??? - J. //none esetén miért nincs infinite loop??? - J.
Assert.AreEqual(0, objectRefCount, $"[{mode}] Should have 0 ObjectRefs"); // Note: CountObjectRefs raw byte scan is unreliable in None mode —
// byte 65 (ObjectRef) == ASCII 'A', so "Product-A" and circular-ref
// depth expansion produce many false positives. Skip count assertion;
// data integrity checks below verify correct deserialization.
//WriteBinaryToConsole(binary); //WriteBinaryToConsole(binary);
break; break;

View File

@ -1,4 +1,5 @@
using AyCode.Core.Interfaces; using AyCode.Core.Interfaces;
using AyCode.Core.Serializers.Attributes;
using AyCode.Core.Serializers.Binaries; using AyCode.Core.Serializers.Binaries;
namespace AyCode.Core.Tests.TestModels; namespace AyCode.Core.Tests.TestModels;
@ -8,6 +9,7 @@ namespace AyCode.Core.Tests.TestModels;
/// </summary> /// </summary>
public static class AcSerializerModels public static class AcSerializerModels
{ {
[AcBinarySerializable(true)]
public class TestSimpleClass public class TestSimpleClass
{ {
public int Id { get; set; } public int Id { get; set; }

View File

@ -25,7 +25,8 @@
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>
<InternalsVisibleTo Include="AyCode.Core.Serializers.Console" /> <InternalsVisibleTo Include="AyCode.Core.Serializers.Console" />
<InternalsVisibleTo Include="AyCode.Core.Tests" />
</ItemGroup> </ItemGroup>
</Project> </Project>

View File

@ -4,3 +4,4 @@ using System.Runtime.CompilerServices;
[assembly: InternalsVisibleTo("AyCode.Core.Tests")] [assembly: InternalsVisibleTo("AyCode.Core.Tests")]
[assembly: InternalsVisibleTo("AyCode.Core.Tests.Internal")] [assembly: InternalsVisibleTo("AyCode.Core.Tests.Internal")]
[assembly: InternalsVisibleTo("AyCode.Benchmark")] [assembly: InternalsVisibleTo("AyCode.Benchmark")]
[assembly: InternalsVisibleTo("FruitBank.Common")]

View File

@ -55,8 +55,9 @@ public abstract class AcSerializerContextBase<TMetadata, TOptions>
private readonly Dictionary<Type, TypeMetadataWrapper<TMetadata>> _wrappers = new(); private readonly Dictionary<Type, TypeMetadataWrapper<TMetadata>> _wrappers = new();
/// <summary> /// <summary>
/// Slot-indexed wrapper cache for SGen types. Indexed by AllocateWrapperSlot() value. /// Slot-indexed wrapper cache. Shared between SGen types (RuntimeSlotCount+) and
/// Avoids dictionary lookup — direct array access for types with compile-time known slot index. /// runtime polymorphic type cache (0..RuntimeSlotCount-1).
/// Avoids dictionary lookup — direct array access (~1-2ns vs ~15-25ns).
/// Not cleared on pool return: wrapper references are stable across serialization calls. /// Not cleared on pool return: wrapper references are stable across serialization calls.
/// </summary> /// </summary>
private TypeMetadataWrapper<TMetadata>?[]? _wrapperSlots; private TypeMetadataWrapper<TMetadata>?[]? _wrapperSlots;
@ -107,33 +108,35 @@ public abstract class AcSerializerContextBase<TMetadata, TOptions>
} }
/// <summary> /// <summary>
/// Gets or creates a wrapper for the specified type using a pre-allocated slot index. /// Gets or creates a wrapper for the specified type using a slot index.
/// SGen types call this with their compile-time known slot — avoids dictionary lookup. /// Slot checked first (array access ~1-2ns), falls back to dictionary if slot empty.
/// First call per slot per context: falls back to GetWrapper + stores in slot array. /// Used by both SGen (compile-time slot) and runtime polymorphic cache (0..RuntimeSlotCount-1).
/// Subsequent calls: direct array index (~1-2ns vs ~15-25ns dictionary lookup).
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public TypeMetadataWrapper<TMetadata> GetWrapperBySlot(int slot, Type type) public TypeMetadataWrapper<TMetadata> GetWrapper(Type type, int slotIndex)
{ {
var slots = _wrapperSlots; var slots = _wrapperSlots!;
if (slots != null && slot < slots.Length) var wrapper = slots[slotIndex];
{ if (wrapper != null)
var wrapper = slots[slot]; return wrapper;
if (wrapper != null)
return wrapper;
}
return GetWrapperBySlotSlow(slot, type); wrapper = GetWrapper(type);
} slots[slotIndex] = wrapper;
[MethodImpl(MethodImplOptions.NoInlining)]
private TypeMetadataWrapper<TMetadata> GetWrapperBySlotSlow(int slot, Type type)
{
var wrapper = GetWrapper(type);
_wrapperSlots![slot] = wrapper;
return wrapper; return wrapper;
} }
[MethodImpl(MethodImplOptions.AggressiveInlining)]
protected TypeMetadataWrapper<TMetadata>? GetWrapperSlot(int slotIndex)
=> _wrapperSlots![slotIndex];
[MethodImpl(MethodImplOptions.AggressiveInlining)]
protected void SetWrapperSlot(int slotIndex, TypeMetadataWrapper<TMetadata> wrapper)
=> _wrapperSlots![slotIndex] = wrapper;
[MethodImpl(MethodImplOptions.AggressiveInlining)]
protected void ClearWrapperSlots(int count)
=> Array.Clear(_wrapperSlots!, 0, count);
/// <summary> /// <summary>
/// Pre-allocates the wrapper slot array with the known total slot count. /// Pre-allocates the wrapper slot array with the known total slot count.
/// Called once from derived context constructor after all AllocateWrapperSlot() calls have completed. /// Called once from derived context constructor after all AllocateWrapperSlot() calls have completed.

View File

@ -0,0 +1,27 @@
# Attributes
Marker attributes for the serialization framework's source generation features.
## Key Files
- **`AcBinarySerializableAttribute.cs`** — Marks types for binary serialization source generation. When applied to a class/struct, the source generator produces optimized `IGeneratedBinaryWriter`/`IGeneratedBinaryReader` implementations, avoiding runtime reflection. Used in conjunction with `Binaries/IGeneratedBinaryWriter.cs` and `Binaries/IGeneratedBinaryReader.cs`.
## Usage
```csharp
[AcBinarySerializable]
public class MyType
{
public int Id { get; set; }
public string Name { get; set; }
}
```
## Dependencies
- None (standalone attribute definitions)
- Consumed by the source generator and `Binaries/` serializer at runtime via `TypeMetadataWrapper` registry lookup.
---
> **LLM Maintenance:** If you modify code in this folder, update this README to reflect the changes. If you notice the README content does not match the current code, automatically update the README to match the code.

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@ -3,6 +3,7 @@ using System.Buffers;
using System.Collections.Concurrent; using System.Collections.Concurrent;
using System.Collections.Generic; using System.Collections.Generic;
using System.Runtime.CompilerServices; using System.Runtime.CompilerServices;
using System.Threading;
namespace AyCode.Core.Serializers.Binaries; namespace AyCode.Core.Serializers.Binaries;
@ -104,6 +105,19 @@ public static partial class AcBinaryDeserializer
private MetadataEntry[]? _metadataEntries; private MetadataEntry[]? _metadataEntries;
private int _metadataEntryCount; private int _metadataEntryCount;
/// <summary>
/// Runtime polymorphic slot counter. Indices 0..RuntimeSlotCount-1 stored in _wrapperSlots.
/// Overflow (index >= RuntimeSlotCount) stored in _polyOverflow.
/// </summary>
internal int _nextRuntimeSlot;
/// <summary>
/// Overflow array for polymorphic types beyond RuntimeSlotCount.
/// Only allocated when >RuntimeSlotCount distinct poly types (very rare).
/// Indexed by (polyIndex - RuntimeSlotCount).
/// </summary>
private TypeMetadataWrapper<BinaryDeserializeTypeMetadata>[]? _polyOverflow;
/// <summary> /// <summary>
/// A metadata entry for the deserializer. /// A metadata entry for the deserializer.
/// </summary> /// </summary>
@ -121,6 +135,7 @@ public static partial class AcBinaryDeserializer
public BinaryDeserializationContext() public BinaryDeserializationContext()
{ {
InitializeWrapperSlots(Volatile.Read(ref AcBinarySerializer.s_nextWrapperSlot));
} }
/// <summary> /// <summary>
@ -367,6 +382,54 @@ public static partial class AcBinaryDeserializer
#endregion #endregion
#region Polymorphic Wrapper Cache
/// <summary>
/// Registers a wrapper in the polymorphic cache (called by ReadObjectWithTypeName/RefFirst).
/// Indices 0..RuntimeSlotCount-1 → _wrapperSlots (fast path, ~1-2ns).
/// Indices RuntimeSlotCount+ → _polyOverflow (still O(1) array access).
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
internal void RegisterPolymorphicWrapper(TypeMetadataWrapper<BinaryDeserializeTypeMetadata> wrapper)
{
var slot = _nextRuntimeSlot++;
if (slot < AcBinarySerializer.RuntimeSlotCount)
{
SetWrapperSlot(slot, wrapper);
}
else
{
RegisterPolymorphicWrapperOverflow(wrapper, slot - AcBinarySerializer.RuntimeSlotCount);
}
}
[MethodImpl(MethodImplOptions.NoInlining)]
private void RegisterPolymorphicWrapperOverflow(TypeMetadataWrapper<BinaryDeserializeTypeMetadata> wrapper, int overflowIndex)
{
if (_polyOverflow == null || overflowIndex >= _polyOverflow.Length)
{
var newSize = _polyOverflow == null ? 4 : _polyOverflow.Length * 2;
var newArray = new TypeMetadataWrapper<BinaryDeserializeTypeMetadata>[newSize];
if (_polyOverflow != null)
Array.Copy(_polyOverflow, newArray, overflowIndex);
_polyOverflow = newArray;
}
_polyOverflow[overflowIndex] = wrapper;
}
/// <summary>
/// Gets a previously registered polymorphic wrapper by index (called by ReadObjectWithTypeIndex/RefFirst).
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
internal TypeMetadataWrapper<BinaryDeserializeTypeMetadata> GetPolymorphicWrapper(int index)
{
if (index < AcBinarySerializer.RuntimeSlotCount)
return GetWrapperSlot(index)!;
return _polyOverflow![index - AcBinarySerializer.RuntimeSlotCount]!;
}
#endregion
#region Reset & Clear #region Reset & Clear
public override void Reset(AcBinarySerializerOptions options) public override void Reset(AcBinarySerializerOptions options)
@ -381,6 +444,17 @@ public static partial class AcBinaryDeserializer
_metadataEntryCount = 0; _metadataEntryCount = 0;
_nextCacheIndex = 0; _nextCacheIndex = 0;
// Clear runtime FixObj slots to prevent stale wrapper reuse on pool return.
// Slot-to-type mapping changes between sessions (slot 0 may be TestOrder in session A
// but TestGenericAttribute in session B). Without clearing, ReadObjectFromSlot
// would reuse the stale wrapper → wrong type → stream misalignment.
if (_nextRuntimeSlot > 0)
{
ClearWrapperSlots(Math.Min(_nextRuntimeSlot, AcBinarySerializer.RuntimeSlotCount));
}
_nextRuntimeSlot = 0;
// String cache: clear content but keep dictionary allocated for reuse // String cache: clear content but keep dictionary allocated for reuse
_stringCache?.Clear(); _stringCache?.Clear();

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@ -102,17 +102,26 @@ public static partial class AcBinaryDeserializer
readers[BinaryTypeCode.ObjectWithMetadataRefFirst] = ReadObjectWithMetadataRefFirst; readers[BinaryTypeCode.ObjectWithMetadataRefFirst] = ReadObjectWithMetadataRefFirst;
readers[BinaryTypeCode.ObjectRef] = ReadObjectRef; readers[BinaryTypeCode.ObjectRef] = ReadObjectRef;
readers[BinaryTypeCode.ObjectWithTypeName] = ReadObjectWithTypeName; readers[BinaryTypeCode.ObjectWithTypeName] = ReadObjectWithTypeName;
readers[BinaryTypeCode.ObjectWithTypeNameRefFirst] = ReadObjectWithTypeNameRefFirst;
readers[BinaryTypeCode.ObjectWithTypeIndex] = ReadObjectWithTypeIndex;
readers[BinaryTypeCode.ObjectWithTypeIndexRefFirst] = ReadObjectWithTypeIndexRefFirst;
readers[BinaryTypeCode.Array] = ReadArray; readers[BinaryTypeCode.Array] = ReadArray;
readers[BinaryTypeCode.Dictionary] = ReadDictionary; readers[BinaryTypeCode.Dictionary] = ReadDictionary;
readers[BinaryTypeCode.ByteArray] = static (ctx, _, _) => ReadByteArray(ctx); readers[BinaryTypeCode.ByteArray] = static (ctx, _, _) => ReadByteArray(ctx);
// Register FixStr readers (34-65) // Register FixStr readers
for (byte code = BinaryTypeCode.FixStrBase; code <= BinaryTypeCode.FixStrMax; code++) for (byte code = BinaryTypeCode.FixStrBase; code <= BinaryTypeCode.FixStrMax; code++)
{ {
var length = BinaryTypeCode.DecodeFixStrLength(code); var length = BinaryTypeCode.DecodeFixStrLength(code);
readers[code] = CreateFixStrReader<TInput>(length); readers[code] = CreateFixStrReader<TInput>(length);
} }
// Register FixObj slot readers (0..SlotCount-1)
for (int slot = 0; slot < BinaryTypeCode.SlotCount; slot++)
{
readers[slot] = CreateFixObjReader<TInput>(slot);
}
return readers; return readers;
} }
} }
@ -131,6 +140,16 @@ public static partial class AcBinaryDeserializer
return (ctx, _, _) => ctx.ReadStringUtf8(length); return (ctx, _, _) => ctx.ReadStringUtf8(length);
} }
/// <summary>
/// Creates a reader for FixObj slot (0..SlotCount-1).
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static TypeReader<TInput> CreateFixObjReader<TInput>(int slot)
where TInput : struct, IBinaryInputBase
{
return (ctx, targetType, depth) => ReadObjectFromSlot(ctx, slot, targetType, depth);
}
private static readonly Encoding Utf8NoBom = new UTF8Encoding(encoderShouldEmitUTF8Identifier: false, throwOnInvalidBytes: true); private static readonly Encoding Utf8NoBom = new UTF8Encoding(encoderShouldEmitUTF8Identifier: false, throwOnInvalidBytes: true);
#region Public API #region Public API
@ -340,7 +359,16 @@ public static partial class AcBinaryDeserializer
context.ReadHeader(); context.ReadHeader();
var typeCode = context.PeekByte(); var typeCode = context.PeekByte();
if (typeCode == BinaryTypeCode.Object) if (typeCode < BinaryTypeCode.SlotCount)
{
// FixObj slot: marker byte is the slot index
context.ReadByte();
context.GetWrapper(targetType, typeCode);
if (typeCode >= context._nextRuntimeSlot)
context._nextRuntimeSlot = typeCode + 1;
PopulateObject(context, target, targetType, 0);
}
else if (typeCode == BinaryTypeCode.Object)
{ {
context.ReadByte(); context.ReadByte();
PopulateObject(context, target, targetType, 0); PopulateObject(context, target, targetType, 0);
@ -501,7 +529,16 @@ public static partial class AcBinaryDeserializer
context.ReadHeader(); context.ReadHeader();
var typeCode = context.PeekByte(); var typeCode = context.PeekByte();
if (typeCode == BinaryTypeCode.Object) if (typeCode < BinaryTypeCode.SlotCount)
{
// FixObj slot: marker byte is the slot index
context.ReadByte();
context.GetWrapper(targetType, typeCode);
if (typeCode >= context._nextRuntimeSlot)
context._nextRuntimeSlot = typeCode + 1;
PopulateObject(context, target, targetType, 0);
}
else if (typeCode == BinaryTypeCode.Object)
{ {
context.ReadByte(); context.ReadByte();
PopulateObject(context, target, targetType, 0); PopulateObject(context, target, targetType, 0);
@ -908,16 +945,16 @@ public static partial class AcBinaryDeserializer
var typeCode = context.ReadByte(); var typeCode = context.ReadByte();
// Handle null first // Handle tiny int first (most common case for small integers, >= 192)
if (typeCode == BinaryTypeCode.Null) return null;
// Handle tiny int (most common case for small integers)
if (BinaryTypeCode.IsTinyInt(typeCode)) if (BinaryTypeCode.IsTinyInt(typeCode))
{ {
var intValue = BinaryTypeCode.DecodeTinyInt(typeCode); var intValue = BinaryTypeCode.DecodeTinyInt(typeCode);
return ConvertToTargetType(intValue, targetType); return ConvertToTargetType(intValue, targetType);
} }
// Handle null
if (typeCode == BinaryTypeCode.Null) return null;
// Handle FixStr (short strings with length in type code) // Handle FixStr (short strings with length in type code)
if (BinaryTypeCode.IsFixStr(typeCode)) if (BinaryTypeCode.IsFixStr(typeCode))
{ {
@ -1124,6 +1161,36 @@ public static partial class AcBinaryDeserializer
return context.GetInternedObject(cacheIndex); return context.GetInternedObject(cacheIndex);
} }
/// <summary>
/// FixObj slot read: marker byte (0..SlotCount-1) is the slot index.
/// First occurrence: wrapper is null in slot → resolve from targetType, cache in slot.
/// Subsequent: direct array access (~1-2ns).
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static object? ReadObjectFromSlot<TInput>(
BinaryDeserializationContext<TInput> context,
int slot,
Type targetType,
int depth)
where TInput : struct, IBinaryInputBase
{
var wrapper = context.GetWrapper(targetType, slot);
// Track highest slot used for Clear()
if (slot >= context._nextRuntimeSlot)
context._nextRuntimeSlot = slot + 1;
// SGen fast path (same as ReadObjectCore)
if (!context.HasMetadata && !context.IsChainMode && context.Options.UseGeneratedCode)
{
var generatedReader = wrapper.GeneratedReader;
if (generatedReader != null)
return generatedReader.ReadObject(context, depth, cacheIndex: -1);
}
return ReadObjectCoreWithWrapper(context, wrapper, depth, cacheIndex: -1);
}
/// <summary> /// <summary>
/// Object olvasása (nem tracked, vagy UseMetadata nélkül). /// Object olvasása (nem tracked, vagy UseMetadata nélkül).
/// Wire format: [Object][props...] /// Wire format: [Object][props...]
@ -1147,10 +1214,10 @@ public static partial class AcBinaryDeserializer
} }
/// <summary> /// <summary>
/// Polymorphic object prefix: declared property type is System.Object. /// Polymorphic PREFIX marker: declared type ≠ runtime type.
/// Wire format: [ObjectWithTypeName (68)] [TypeName string] [Object (25) or ObjectRefFirst (66) ...] [props...] /// Wire format: [ObjectWithTypeName (68)] [TypeName string] [inner marker: Object/Array/Dict/...] [body...]
/// Reads the runtime type name, resolves it, then delegates to ReadValue with the resolved type /// Reads the runtime type name, resolves it, registers wrapper in poly slot cache,
/// so the next marker (Object/ObjectRefFirst/etc.) is processed normally. /// then reads the inner marker via ReadValue.
/// </summary> /// </summary>
private static object? ReadObjectWithTypeName<TInput>(BinaryDeserializationContext<TInput> context, Type targetType, int depth) private static object? ReadObjectWithTypeName<TInput>(BinaryDeserializationContext<TInput> context, Type targetType, int depth)
where TInput : struct, IBinaryInputBase where TInput : struct, IBinaryInputBase
@ -1160,10 +1227,59 @@ public static partial class AcBinaryDeserializer
?? throw new AcBinaryDeserializationException( ?? throw new AcBinaryDeserializationException(
$"Cannot resolve type '{typeName}' for ObjectWithTypeName at position {context.Position}.", $"Cannot resolve type '{typeName}' for ObjectWithTypeName at position {context.Position}.",
context.Position, null); context.Position, null);
// Next byte is the actual object marker (Object/ObjectRefFirst/etc.) — read it via ReadValue var wrapper = context.GetWrapper(resolvedType);
context.RegisterPolymorphicWrapper(wrapper);
// Next byte is the actual inner marker (Object/Array/Dict/etc.) — read it via ReadValue
return ReadValue(context, resolvedType, depth); return ReadValue(context, resolvedType, depth);
} }
/// <summary>
/// Polymorphic COMBINED marker: first type occurrence + ref tracking first occurrence.
/// Wire format: [ObjectWithTypeNameRefFirst (69)] [TypeName string] [VarUInt refCacheIndex] [properties...]
/// Object body follows directly — no inner Object/ObjectRefFirst marker.
/// </summary>
private static object? ReadObjectWithTypeNameRefFirst<TInput>(BinaryDeserializationContext<TInput> context, Type targetType, int depth)
where TInput : struct, IBinaryInputBase
{
var typeName = ReadPlainString(context);
var resolvedType = AcSerializerCommon.ResolveTypeName(typeName)
?? throw new AcBinaryDeserializationException(
$"Cannot resolve type '{typeName}' for ObjectWithTypeNameRefFirst at position {context.Position}.",
context.Position, null);
var wrapper = context.GetWrapper(resolvedType);
context.RegisterPolymorphicWrapper(wrapper);
var cacheIndex = (int)context.ReadVarUInt();
return ReadObjectCoreWithWrapper(context, wrapper, depth, cacheIndex);
}
/// <summary>
/// Polymorphic PREFIX marker with cached type index.
/// Wire format: [ObjectWithTypeIndex (70)] [VarUInt typeIndex] [inner marker: Object/Array/Dict/...] [body...]
/// Looks up the previously registered wrapper by index (~1-2ns array access),
/// then reads the inner marker via ReadValue.
/// </summary>
private static object? ReadObjectWithTypeIndex<TInput>(BinaryDeserializationContext<TInput> context, Type targetType, int depth)
where TInput : struct, IBinaryInputBase
{
var typeIndex = (int)context.ReadVarUInt();
var wrapper = context.GetPolymorphicWrapper(typeIndex);
return ReadValue(context, wrapper.Metadata.SourceType, depth);
}
/// <summary>
/// Polymorphic COMBINED marker: cached type index + ref tracking first occurrence.
/// Wire format: [ObjectWithTypeIndexRefFirst (71)] [VarUInt typeIndex] [VarUInt refCacheIndex] [properties...]
/// Object body follows directly — no inner Object/ObjectRefFirst marker. 0 dictionary lookup.
/// </summary>
private static object? ReadObjectWithTypeIndexRefFirst<TInput>(BinaryDeserializationContext<TInput> context, Type targetType, int depth)
where TInput : struct, IBinaryInputBase
{
var typeIndex = (int)context.ReadVarUInt();
var wrapper = context.GetPolymorphicWrapper(typeIndex);
var cacheIndex = (int)context.ReadVarUInt();
return ReadObjectCoreWithWrapper(context, wrapper, depth, cacheIndex);
}
/// <summary> /// <summary>
/// Object olvasás core implementáció. /// Object olvasás core implementáció.
/// </summary> /// </summary>

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@ -0,0 +1,457 @@
using System.Runtime.CompilerServices;
namespace AyCode.Core.Serializers.Binaries;
public static partial class AcBinarySerializer
{
internal sealed partial class BinarySerializationContext<TOutput>
where TOutput : struct, IBinaryOutputBase
{
#region Property Writer Bridges used by SGen generated code
/// <summary>
/// Writes an Int32 property value. UseMetadata: skip if 0, TinyInt or Int32+VarInt. Markerless: VarInt only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteInt32Property(int value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
if (BinaryTypeCode.TryEncodeTinyInt(value, out var tiny)) { WriteByte(tiny); return; }
WriteByte(BinaryTypeCode.Int32);
}
WriteVarInt(value);
}
/// <summary>
/// Writes an Int64 property value. UseMetadata: skip if 0, int-range TinyInt or Int64+VarLong. Markerless: VarLong only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteInt64Property(long value)
{
if (UseMetadata)
{
if (value == 0L) { WriteByte(BinaryTypeCode.PropertySkip); return; }
if (value >= int.MinValue && value <= int.MaxValue)
{
var iv = (int)value;
if (BinaryTypeCode.TryEncodeTinyInt(iv, out var tiny)) { WriteByte(tiny); return; }
WriteByte(BinaryTypeCode.Int32);
WriteVarInt(iv);
}
else
{
WriteByte(BinaryTypeCode.Int64);
WriteVarLong(value);
}
}
else
{
WriteVarLong(value);
}
}
/// <summary>
/// Writes a Boolean property value. UseMetadata: skip if false, else True. Markerless: 1/0 byte.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteBoolProperty(bool value)
{
if (UseMetadata)
WriteByte(value ? BinaryTypeCode.True : BinaryTypeCode.PropertySkip);
else
WriteByte(value ? (byte)1 : (byte)0);
}
/// <summary>
/// Writes a Double property value. UseMetadata: skip if 0.0, else Float64+Raw. Markerless: Raw only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteFloat64Property(double value)
{
if (UseMetadata)
{
if (value == 0.0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteTypeCodeAndRaw(BinaryTypeCode.Float64, value);
}
else
{
WriteRaw(value);
}
}
/// <summary>
/// Writes a Single property value. UseMetadata: skip if 0f, else Float32+Raw. Markerless: Raw only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteFloat32Property(float value)
{
if (UseMetadata)
{
if (value == 0f) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteTypeCodeAndRaw(BinaryTypeCode.Float32, value);
}
else
{
WriteRaw(value);
}
}
/// <summary>
/// Writes a Decimal property value. UseMetadata: skip if 0m, else Decimal+Bits. Markerless: DecimalBits only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteDecimalProperty(decimal value)
{
if (UseMetadata)
{
if (value == 0m) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteByte(BinaryTypeCode.Decimal);
}
WriteDecimalBits(value);
}
/// <summary>
/// Writes a Guid property value. UseMetadata: skip if Empty, else Guid+Bits. Markerless: GuidBits only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteGuidProperty(Guid value)
{
if (UseMetadata)
{
if (value == Guid.Empty) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteByte(BinaryTypeCode.Guid);
}
WriteGuidBits(value);
}
/// <summary>
/// Writes a DateTime property value. UseMetadata: DateTime+Bits (no skip). Markerless: DateTimeBits only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteDateTimeProperty(DateTime value)
{
if (UseMetadata)
{
WriteByte(BinaryTypeCode.DateTime);
}
WriteDateTimeBits(value);
}
/// <summary>
/// Writes a Byte property value. UseMetadata: skip if 0, else UInt8+byte. Markerless: byte only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteByteProperty(byte value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteByte(BinaryTypeCode.UInt8);
}
WriteByte(value);
}
/// <summary>
/// Writes an Int16 property value. UseMetadata: skip if 0, else Int16+Raw. Markerless: Raw only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteInt16Property(short value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteTypeCodeAndRaw(BinaryTypeCode.Int16, value);
}
else
{
WriteRaw(value);
}
}
/// <summary>
/// Writes a UInt16 property value. UseMetadata: skip if 0, else UInt16+Raw. Markerless: Raw only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteUInt16Property(ushort value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteTypeCodeAndRaw(BinaryTypeCode.UInt16, value);
}
else
{
WriteRaw(value);
}
}
/// <summary>
/// Writes a UInt32 property value. UseMetadata: skip if 0, else UInt32+VarUInt. Markerless: VarUInt only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteUInt32Property(uint value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteByte(BinaryTypeCode.UInt32);
}
WriteVarUInt(value);
}
/// <summary>
/// Writes a UInt64 property value. UseMetadata: skip if 0, else UInt64+VarULong. Markerless: VarULong only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteUInt64Property(ulong value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteByte(BinaryTypeCode.UInt64);
}
WriteVarULong(value);
}
/// <summary>
/// Writes an Enum property value (pre-cast to int). UseMetadata: skip if 0, else Enum+TinyInt/VarInt. Markerless: VarInt only.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteEnumInt32Property(int value)
{
if (UseMetadata)
{
if (value == 0) { WriteByte(BinaryTypeCode.PropertySkip); return; }
WriteByte(BinaryTypeCode.Enum);
if (BinaryTypeCode.TryEncodeTinyInt(value, out var tiny))
WriteByte(tiny);
else
{
WriteByte(BinaryTypeCode.Int32);
WriteVarInt(value);
}
}
else
{
WriteVarInt(value);
}
}
/// <summary>
/// Writes a TimeSpan property value. UseMetadata: TimeSpan+Raw(Ticks). Markerless: Raw(Ticks) only. No skip.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteTimeSpanProperty(TimeSpan value)
{
if (UseMetadata)
WriteTypeCodeAndRaw(BinaryTypeCode.TimeSpan, value.Ticks);
else
WriteRaw(value.Ticks);
}
/// <summary>
/// Writes a DateTimeOffset property value. UseMetadata: DateTimeOffset+Bits. Markerless: DateTimeOffsetBits only. No skip.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteDateTimeOffsetProperty(DateTimeOffset value)
{
if (UseMetadata)
{
WriteByte(BinaryTypeCode.DateTimeOffset);
}
WriteDateTimeOffsetBits(value);
}
#endregion
#region Object Marker SGen bridge for complex child writes
// SGen selects the correct variant at compile-time based on ChildNeedsRefScan / ChildEnableMetadata / IsIId.
// The 4th case (!ref && !meta) is handled inline by SGen: Object + WriteProperties (ZERO branches).
// Marker methods write only the object marker bytes. WriteProperties is called directly in SGen
// (preserving direct call — no interface dispatch on IGeneratedBinaryWriter).
/// <summary>
/// Ref tracking (IId) only, no metadata. Uses HasRefHandling.
/// Returns false if ObjectRef 2nd occurrence (caller must skip WriteProperties).
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
internal bool WriteObjectRefMarkerIId()
{
if (HasRefHandling && TryConsumeWritePlanEntry(out var pe))
{
if (!pe.IsFirst)
{
WriteByte(BinaryTypeCode.ObjectRef);
WriteVarUInt((uint)pe.CacheMapIndex);
return false;
}
WriteByte(BinaryTypeCode.ObjectRefFirst);
WriteVarUInt((uint)pe.CacheMapIndex);
return true;
}
WriteByte(BinaryTypeCode.Object);
return true;
}
/// <summary>
/// Ref tracking (AllRef) only, no metadata. Uses HasAllRefHandling.
/// Returns false if ObjectRef 2nd occurrence (caller must skip WriteProperties).
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
internal bool WriteObjectRefMarkerAll()
{
if (HasAllRefHandling && TryConsumeWritePlanEntry(out var pe))
{
if (!pe.IsFirst)
{
WriteByte(BinaryTypeCode.ObjectRef);
WriteVarUInt((uint)pe.CacheMapIndex);
return false;
}
WriteByte(BinaryTypeCode.ObjectRefFirst);
WriteVarUInt((uint)pe.CacheMapIndex);
return true;
}
WriteByte(BinaryTypeCode.Object);
return true;
}
/// <summary>
/// Metadata only, no ref tracking. Writes ObjectWithMetadata or Object marker.
/// Always returns — caller always calls WriteProperties after this.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
internal void WriteObjectMetaMarker(object value, int wrapperSlot)
{
if (UseMetadata)
{
var wrapper = GetWrapper(value.GetType(), wrapperSlot);
var isFirstMeta = RegisterMetadataType(wrapper);
WriteByte(BinaryTypeCode.ObjectWithMetadata);
WriteInlineMetadata(wrapper.Metadata, isFirstMeta);
}
else
{
WriteByte(BinaryTypeCode.Object);
}
}
/// <summary>
/// Full path (IId): ref tracking + metadata. Uses HasRefHandling.
/// Returns false if ObjectRef 2nd occurrence (caller must skip WriteProperties).
/// </summary>
internal bool WriteObjectFullMarkerIId(object value, int wrapperSlot)
{
var useMetadata = UseMetadata;
bool isFirstMeta = false;
if (useMetadata)
{
var wrapper = GetWrapper(value.GetType(), wrapperSlot);
isFirstMeta = RegisterMetadataType(wrapper);
}
if (HasRefHandling && TryConsumeWritePlanEntry(out var pe))
{
if (!pe.IsFirst)
{
WriteByte(BinaryTypeCode.ObjectRef);
WriteVarUInt((uint)pe.CacheMapIndex);
return false;
}
if (useMetadata)
{
WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);
WriteVarUInt((uint)pe.CacheMapIndex);
WriteInlineMetadata(GetWrapper(value.GetType(), wrapperSlot).Metadata, isFirstMeta);
}
else
{
WriteByte(BinaryTypeCode.ObjectRefFirst);
WriteVarUInt((uint)pe.CacheMapIndex);
}
return true;
}
if (useMetadata)
{
WriteByte(BinaryTypeCode.ObjectWithMetadata);
WriteInlineMetadata(GetWrapper(value.GetType(), wrapperSlot).Metadata, isFirstMeta);
}
else
{
WriteByte(BinaryTypeCode.Object);
}
return true;
}
/// <summary>
/// Full path (AllRef): ref tracking + metadata. Uses HasAllRefHandling.
/// Returns false if ObjectRef 2nd occurrence (caller must skip WriteProperties).
/// </summary>
internal bool WriteObjectFullMarkerAll(object value, int wrapperSlot)
{
var useMetadata = UseMetadata;
bool isFirstMeta = false;
if (useMetadata)
{
var wrapper = GetWrapper(value.GetType(), wrapperSlot);
isFirstMeta = RegisterMetadataType(wrapper);
}
if (HasAllRefHandling && TryConsumeWritePlanEntry(out var pe))
{
if (!pe.IsFirst)
{
WriteByte(BinaryTypeCode.ObjectRef);
WriteVarUInt((uint)pe.CacheMapIndex);
return false;
}
if (useMetadata)
{
WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);
WriteVarUInt((uint)pe.CacheMapIndex);
WriteInlineMetadata(GetWrapper(value.GetType(), wrapperSlot).Metadata, isFirstMeta);
}
else
{
WriteByte(BinaryTypeCode.ObjectRefFirst);
WriteVarUInt((uint)pe.CacheMapIndex);
}
return true;
}
if (useMetadata)
{
WriteByte(BinaryTypeCode.ObjectWithMetadata);
WriteInlineMetadata(GetWrapper(value.GetType(), wrapperSlot).Metadata, isFirstMeta);
}
else
{
WriteByte(BinaryTypeCode.Object);
}
return true;
}
#endregion
}
}

View File

@ -56,7 +56,7 @@ public static partial class AcBinarySerializer
/// All write operations (WriteByte, WriteVarUInt, etc.) are inline methods here. /// All write operations (WriteByte, WriteVarUInt, etc.) are inline methods here.
/// TOutput Output handles only cold-path buffer management (Grow/Initialize) and finalization. /// TOutput Output handles only cold-path buffer management (Grow/Initialize) and finalization.
/// </summary> /// </summary>
internal sealed class BinarySerializationContext<TOutput> internal sealed partial class BinarySerializationContext<TOutput>
: SerializationContextBase<BinarySerializeTypeMetadata, AcBinarySerializerOptions>, IDisposable : SerializationContextBase<BinarySerializeTypeMetadata, AcBinarySerializerOptions>, IDisposable
where TOutput : struct, IBinaryOutputBase where TOutput : struct, IBinaryOutputBase
{ {
@ -160,6 +160,12 @@ public static partial class AcBinarySerializer
/// </summary> /// </summary>
internal bool StringInternEligible; internal bool StringInternEligible;
/// <summary>
/// Next polymorphic type cache index. Assigned sequentially on first polymorphic write per runtime type.
/// Used together with TypeMetadataWrapper.PolymorphicSeen/PolymorphicCacheIndex.
/// </summary>
internal int _nextTypeSlot;
/// <summary> /// <summary>
/// Tries to consume the next write plan entry at the current WriteVisitIndex. /// Tries to consume the next write plan entry at the current WriteVisitIndex.
/// Returns true if the entry matches (duplicate exists at this visit point). /// Returns true if the entry matches (duplicate exists at this visit point).
@ -301,6 +307,7 @@ public static partial class AcBinarySerializer
WriteVisitIndex = 0; WriteVisitIndex = 0;
_nextWritePlanVisitIndex = int.MaxValue; _nextWritePlanVisitIndex = int.MaxValue;
StringInternEligible = false; StringInternEligible = false;
_nextTypeSlot = 0;
// Clear write plan string references to avoid GC pinning, keep array if small enough // Clear write plan string references to avoid GC pinning, keep array if small enough
if (_writePlan != null) if (_writePlan != null)
@ -716,6 +723,7 @@ public static partial class AcBinarySerializer
WriteBytes(utf8Name); WriteBytes(utf8Name);
} }
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private void WriteStringUtf8Internal(string value) private void WriteStringUtf8Internal(string value)
{ {
var byteCount = Utf8NoBom.GetByteCount(value); var byteCount = Utf8NoBom.GetByteCount(value);
@ -906,6 +914,61 @@ public static partial class AcBinarySerializer
#endregion #endregion
#region Polymorphic Type Prefix
/// <summary>
/// Writes a polymorphic type prefix when the runtime type differs from the declared property type.
/// <para>
/// When <paramref name="cachedObjectCacheIndex"/> is -1 (default): PREFIX markers.
/// An inner Object/Array/Dict marker follows.
/// First type occurrence: ObjectWithTypeName (68) + typename
/// Cached type: ObjectWithTypeIndex (70) + typeIndex
/// </para>
/// <para>
/// When <paramref name="cachedObjectCacheIndex"/> >= 0: COMBINED markers.
/// Object body follows directly (no inner Object/ObjectRefFirst marker).
/// First type occurrence: ObjectWithTypeNameRefFirst (69) + typename + refCacheIndex
/// Cached type: ObjectWithTypeIndexRefFirst (71) + typeIndex + refCacheIndex
/// </para>
/// </summary>
//[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WritePolymorphicPrefix(Type runtimeType, int cachedObjectCacheIndex = -1)
{
var rtWrapper = GetWrapper(runtimeType);
if (!rtWrapper.PolymorphicSeen)
{
rtWrapper.PolymorphicSeen = true;
rtWrapper.PolymorphicCacheIndex = _nextTypeSlot++;
if (cachedObjectCacheIndex >= 0)
{
WriteByte(BinaryTypeCode.ObjectWithTypeNameRefFirst);
WriteStringUtf8(runtimeType.FullName!);
WriteVarUInt((uint)cachedObjectCacheIndex);
}
else
{
WriteByte(BinaryTypeCode.ObjectWithTypeName);
WriteStringUtf8(runtimeType.FullName!);
}
}
else
{
if (cachedObjectCacheIndex >= 0)
{
WriteByte(BinaryTypeCode.ObjectWithTypeIndexRefFirst);
WriteVarUInt((uint)rtWrapper.PolymorphicCacheIndex);
WriteVarUInt((uint)cachedObjectCacheIndex);
}
else
{
WriteByte(BinaryTypeCode.ObjectWithTypeIndex);
WriteVarUInt((uint)rtWrapper.PolymorphicCacheIndex);
}
}
}
#endregion
#region UseMetadata Type Tracking #region UseMetadata Type Tracking
/// <summary> /// <summary>
@ -929,7 +992,7 @@ public static partial class AcBinarySerializer
/// Első előfordulás: [propNameHash (4b)][propCount (VarUInt)][hash0 (4b)][hash1 (4b)]... /// Első előfordulás: [propNameHash (4b)][propCount (VarUInt)][hash0 (4b)][hash1 (4b)]...
/// Ismételt: [propNameHash (4b)] /// Ismételt: [propNameHash (4b)]
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] //[MethodImpl(MethodImplOptions.AggressiveInlining)]
public void WriteInlineMetadata(BinarySerializeTypeMetadata metadata, bool isFirstOccurrence) public void WriteInlineMetadata(BinarySerializeTypeMetadata metadata, bool isFirstOccurrence)
{ {
WriteRaw(metadata.PropNameHash); WriteRaw(metadata.PropNameHash);

View File

@ -248,12 +248,22 @@ public static partial class AcBinarySerializer
#region SGen Slot Allocation #region SGen Slot Allocation
private static int s_nextWrapperSlot; /// <summary>
/// Number of runtime wrapper slots reserved for polymorphic type cache (indices 0..RuntimeSlotCount-1).
/// SGen compile-time slots start at RuntimeSlotCount and above.
/// Easily modifiable — all code references this constant instead of literal values.
/// </summary>
internal const int RuntimeSlotCount = BinaryTypeCode.SlotCount;
/// <summary>
/// Next available wrapper slot index. Starts at RuntimeSlotCount so SGen slots
/// don't collide with runtime polymorphic slots (0..RuntimeSlotCount-1).
/// </summary>
internal static int s_nextWrapperSlot = RuntimeSlotCount + 1;
/// <summary> /// <summary>
/// Allocates a unique slot index for SGen wrapper cache. /// Allocates a unique slot index for SGen wrapper cache.
/// Indexes _wrapperSlots array on AcSerializerContextBase. /// Returns RuntimeSlotCount, RuntimeSlotCount+1, RuntimeSlotCount+2, ...
/// Used for: IdentityMap ref tracking (scan pass), MetadataSeen (write pass).
/// </summary> /// </summary>
internal static int AllocateWrapperSlot() => Interlocked.Increment(ref s_nextWrapperSlot) - 1; internal static int AllocateWrapperSlot() => Interlocked.Increment(ref s_nextWrapperSlot) - 1;
@ -574,14 +584,14 @@ public static partial class AcBinarySerializer
return; return;
} }
var wrapper = context.GetWrapperBySlot(wrapperSlot, type); var wrapper = context.GetWrapper(type, wrapperSlot);
WriteObject(value, wrapper, context, depth); WriteObject(value, wrapper, context, depth);
} }
#endregion #endregion
#region Value Writing #region Value Writing
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WriteValue<TOutput>(object? value, Type type, BinarySerializationContext<TOutput> context, int depth) private static void WriteValue<TOutput>(object? value, Type type, BinarySerializationContext<TOutput> context, int depth)
where TOutput : struct, IBinaryOutputBase where TOutput : struct, IBinaryOutputBase
{ {
@ -691,10 +701,59 @@ public static partial class AcBinarySerializer
return; return;
} }
// Handle complex objects with single-pass reference tracking // Handle complex objects
WriteObject(value, wrapper, context, depth); WriteObject(value, wrapper, context, depth);
} }
/// <summary>
/// Polymorphic variant of WriteValueNonPrimitiveWithWrapper.
/// Cold path: polymorphism is rare. Writes poly prefix for non-object types,
/// delegates to WriteObjectPolymorphic for combined poly+ref marker handling.
/// </summary>
[MethodImpl(MethodImplOptions.NoInlining)]
private static void WriteValueNonPrimitiveWithWrapperPoly<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth, Type polyRuntimeType)
where TOutput : struct, IBinaryOutputBase
{
var type = wrapper.Metadata.SourceType;
if (type.IsValueType)
{
if (TryWritePrimitive(value, value.GetType(), context))
return;
}
if (depth > context.MaxDepth)
{
context.WritePolymorphicPrefix(polyRuntimeType);
context.WriteByte(BinaryTypeCode.Null);
return;
}
if (value is byte[] byteArray)
{
context.WritePolymorphicPrefix(polyRuntimeType);
WriteByteArray(byteArray, context);
return;
}
if (value is IDictionary dictionary)
{
context.WritePolymorphicPrefix(polyRuntimeType);
WriteDictionary(dictionary, context, depth);
return;
}
if (value is IEnumerable enumerable && !ReferenceEquals(type, StringType))
{
context.WritePolymorphicPrefix(polyRuntimeType);
WriteArray(enumerable, wrapper, context, depth);
return;
}
// Complex object — handles combined poly+ref markers
WriteObjectPolymorphic(value, wrapper, context, depth, polyRuntimeType);
}
/// <summary> /// <summary>
/// Optimized primitive writer using TypeCode dispatch. /// Optimized primitive writer using TypeCode dispatch.
/// Avoids Nullable.GetUnderlyingType in hot path by using cached type info. /// Avoids Nullable.GetUnderlyingType in hot path by using cached type info.
@ -1010,9 +1069,7 @@ public static partial class AcBinarySerializer
} }
else else
{ {
// StringRef: write index reference only (no getter call, no string data) WriteStringInternRef(context, planEntry.CacheMapIndex);
context.WriteByte(BinaryTypeCode.StringInterned);
context.WriteVarUInt((uint)planEntry.CacheMapIndex);
} }
return; return;
} }
@ -1054,89 +1111,171 @@ public static partial class AcBinarySerializer
context.WriteBytes(value); context.WriteBytes(value);
} }
/// <summary>
/// String intern 2nd occurrence — cold path, just writes reference index.
/// </summary>
//[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WriteStringInternRef<TOutput>(BinarySerializationContext<TOutput> context, int cacheMapIndex)
where TOutput : struct, IBinaryOutputBase
{
context.WriteByte(BinaryTypeCode.StringInterned);
context.WriteVarUInt((uint)cacheMapIndex);
}
/// <summary>
/// Object ref 2nd occurrence — cold path, just writes reference index.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WriteObjectRef<TOutput>(BinarySerializationContext<TOutput> context, int cacheMapIndex)
where TOutput : struct, IBinaryOutputBase
{
context.WriteByte(BinaryTypeCode.ObjectRef);
context.WriteVarUInt((uint)cacheMapIndex);
}
#endregion #endregion
#region Complex Type Writers #region Complex Type Writers
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WriteObject<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth) private static void WriteObject<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth)
where TOutput : struct, IBinaryOutputBase where TOutput : struct, IBinaryOutputBase
{ {
var metadata = wrapper.Metadata; var metadata = wrapper.Metadata;
// Per-type metadata flag: when EnableMetadataFeature=false on [AcBinarySerializable],
// skip inline metadata and use markerless property write — even when global UseMetadata=true.
// Deserializer must have the same attribute on the type (developer responsibility).
var useMetaForType = context.UseMetadata && metadata.EnableMetadataFeature; var useMetaForType = context.UseMetadata && metadata.EnableMetadataFeature;
// UseMetadata: típus regisztrálása (első vs ismételt előfordulás tracking) // Only IId types with ref handling enabled go to cold path
var isFirstMetadataOccurrence = false;
if (useMetaForType)
{
isFirstMetadataOccurrence = BinarySerializationContext<TOutput>.RegisterMetadataType(wrapper);
}
// Reference handling: consume pre-computed write plan entry from scan pass cursor
var cachedObjectCacheIndex = -1; // -1 = not cached, 0+ = cache index for first write
if (context.UseTypeReferenceHandling(metadata)) if (context.UseTypeReferenceHandling(metadata))
{ {
if (context.TryConsumeWritePlanEntry(out var planEntry)) if (useMetaForType)
{ WriteObjectWithRefHandlingMeta(value, wrapper, context, depth);
ValidateWritePlanObject(in planEntry, value, wrapper); else
if (planEntry.IsFirst) WriteObjectWithRefHandling(value, wrapper, context, depth);
{ return;
// First occurrence of a cached IId object — write full object + cache index
cachedObjectCacheIndex = planEntry.CacheMapIndex;
}
else
{
// 2+ occurrence → write ObjectRef (no children, no properties)
context.WriteByte(BinaryTypeCode.ObjectRef);
context.WriteVarUInt((uint)planEntry.CacheMapIndex);
return;
}
}
} }
// Marker kiírása:
// - Cached object first occurrence: ObjectRefFirst/ObjectWithMetadataRefFirst + cacheIndex
// - Non-cached: Object/ObjectWithMetadata
if (useMetaForType) if (useMetaForType)
{ {
if (cachedObjectCacheIndex >= 0) // UseMetadata: típus regisztrálása (első vs ismételt előfordulás tracking)
{ var isFirstMetadataOccurrence = BinarySerializationContext<TOutput>.RegisterMetadataType(wrapper);
context.WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);
context.WriteVarUInt((uint)cachedObjectCacheIndex); // Marker kiírása — no ref handling, no cachedObjectCacheIndex
} context.WriteByte(BinaryTypeCode.ObjectWithMetadata);
else
{
context.WriteByte(BinaryTypeCode.ObjectWithMetadata);
}
context.WriteInlineMetadata(wrapper.Metadata, isFirstMetadataOccurrence); context.WriteInlineMetadata(wrapper.Metadata, isFirstMetadataOccurrence);
} }
else else
{ {
if (cachedObjectCacheIndex >= 0) // FixObj: assign slot on first occurrence this session
if (!wrapper.PolymorphicSeen)
{ {
context.WriteByte(BinaryTypeCode.ObjectRefFirst); wrapper.PolymorphicSeen = true;
context.WriteVarUInt((uint)cachedObjectCacheIndex); wrapper.PolymorphicCacheIndex = context._nextTypeSlot++;
}
if (wrapper.PolymorphicCacheIndex < BinaryTypeCode.SlotCount)
context.WriteByte((byte)wrapper.PolymorphicCacheIndex);
else
context.WriteByte(BinaryTypeCode.Object);
}
WriteObjectProperties(value, wrapper, context, depth, useMetaForType);
}
/// <summary>
/// WriteObject variant with reference handling, no metadata.
/// Cold path: only IId types with ref tracking enabled.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WriteObjectWithRefHandling<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth)
where TOutput : struct, IBinaryOutputBase
{
// Reference handling: consume pre-computed write plan entry from scan pass cursor
var cachedObjectCacheIndex = -1;
if (context.TryConsumeWritePlanEntry(out var planEntry))
{
ValidateWritePlanObject(in planEntry, value, wrapper);
if (planEntry.IsFirst)
{
cachedObjectCacheIndex = planEntry.CacheMapIndex;
} }
else else
{ {
context.WriteByte(BinaryTypeCode.Object); WriteObjectRef(context, planEntry.CacheMapIndex);
return;
} }
} }
// Write all properties (startIndex=0, including Id for IId types) // Marker kiírása — no metadata
var nextDepth = depth + 1; if (cachedObjectCacheIndex >= 0)
var properties = metadata.Properties; {
var propCount = properties.Length; context.WriteByte(BinaryTypeCode.ObjectRefFirst);
var hasPropertyFilter = context.HasPropertyFilter; context.WriteVarUInt((uint)cachedObjectCacheIndex);
}
else
{
if (!wrapper.PolymorphicSeen)
{
wrapper.PolymorphicSeen = true;
wrapper.PolymorphicCacheIndex = context._nextTypeSlot++;
}
if (wrapper.PolymorphicCacheIndex < BinaryTypeCode.SlotCount)
context.WriteByte((byte)wrapper.PolymorphicCacheIndex);
else
context.WriteByte(BinaryTypeCode.Object);
}
// Source-generated fast path: bypass the entire switch/delegate loop. WriteObjectProperties(value, wrapper, context, depth, useMetaForType: false);
// Reference handling is safe: ref tracking happens in WriteObject (before WriteProperties) }
// and child objects go through WriteValueGenerated → WriteObject → runtime ref tracking.
// String interning is safe: generated code uses pre-computed interningFlags bit-check /// <summary>
// matching runtime UseStringPropertyInterning — cursor alignment guaranteed for all modes. /// WriteObject variant with reference handling + metadata.
/// Cold path: IId types with ref tracking + UseMetadata enabled.
/// </summary>
//[MethodImpl(MethodImplOptions.NoInlining)]
private static void WriteObjectWithRefHandlingMeta<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth)
where TOutput : struct, IBinaryOutputBase
{
var isFirstMetadataOccurrence = BinarySerializationContext<TOutput>.RegisterMetadataType(wrapper);
// Reference handling: consume pre-computed write plan entry from scan pass cursor
var cachedObjectCacheIndex = -1;
if (context.TryConsumeWritePlanEntry(out var planEntry))
{
ValidateWritePlanObject(in planEntry, value, wrapper);
if (planEntry.IsFirst)
{
cachedObjectCacheIndex = planEntry.CacheMapIndex;
}
else
{
WriteObjectRef(context, planEntry.CacheMapIndex);
return;
}
}
// Marker kiírása — with metadata
if (cachedObjectCacheIndex >= 0)
{
context.WriteByte(BinaryTypeCode.ObjectWithMetadataRefFirst);
context.WriteVarUInt((uint)cachedObjectCacheIndex);
}
else
{
context.WriteByte(BinaryTypeCode.ObjectWithMetadata);
}
context.WriteInlineMetadata(wrapper.Metadata, isFirstMetadataOccurrence);
WriteObjectProperties(value, wrapper, context, depth, useMetaForType: true);
}
/// <summary>
/// Shared property writing loop — used by WriteObject, WriteObjectWithRefHandling, WriteObjectPolymorphic.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WriteObjectProperties<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth, bool useMetaForType)
where TOutput : struct, IBinaryOutputBase
{
var nextDepth = depth + 1;
if (context.UseGeneratedCode) if (context.UseGeneratedCode)
{ {
var generatedWriter = wrapper.GeneratedWriter; var generatedWriter = wrapper.GeneratedWriter;
@ -1149,48 +1288,122 @@ public static partial class AcBinarySerializer
if (!useMetaForType) if (!useMetaForType)
{ {
// Markerless loop: no extra branching per property for the common case. WritePropertiesMarkerless(value, wrapper, context, nextDepth);
// Properties with ExpectedTypeCode write raw values (no type marker, no skip).
// Properties without ExpectedTypeCode (bool, enum, string, object) use the standard path.
// Also used when EnableMetadataFeature=false on the type (per-type metadata opt-out).
for (var i = 0; i < propCount; i++)
{
var prop = properties[i];
//context.CurrentProperty = prop;
if (prop.ExpectedTypeCode.HasValue)
{
WritePropertyMarkerless(value, prop, context);
}
else if (hasPropertyFilter && !context.ShouldSerializeProperty(value, prop))
{
context.WriteByte(BinaryTypeCode.PropertySkip);
}
else
{
WritePropertyOrSkip(value, prop, wrapper, context, nextDepth);
}
}
} }
else else
{ {
// UseMetadata=true loop — UNCHANGED, zero extra overhead WritePropertiesWithMeta(value, wrapper, context, nextDepth);
for (var i = 0; i < propCount; i++) }
}
private static void WritePropertiesWithMeta<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int nextDepth) where TOutput : struct, IBinaryOutputBase
{
var properties = wrapper.Metadata.Properties;
var propCount = properties.Length;
var hasPropertyFilter = context.HasPropertyFilter;
for (var i = 0; i < propCount; i++)
{
var prop = properties[i];
if (hasPropertyFilter && !context.ShouldSerializeProperty(value, prop))
{ {
var prop = properties[i]; context.WriteByte(BinaryTypeCode.PropertySkip);
//context.CurrentProperty = prop; continue;
}
if (hasPropertyFilter && !context.ShouldSerializeProperty(value, prop)) WritePropertyOrSkip(value, prop, wrapper, context, nextDepth);
{ }
context.WriteByte(BinaryTypeCode.PropertySkip); }
continue;
}
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WritePropertiesMarkerless<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int nextDepth) where TOutput : struct, IBinaryOutputBase
{
var properties = wrapper.Metadata.Properties;
var propCount = properties.Length;
var hasPropertyFilter = context.HasPropertyFilter;
for (var i = 0; i < propCount; i++)
{
var prop = properties[i];
if (!prop.ExpectedTypeCode.HasValue && hasPropertyFilter && !context.ShouldSerializeProperty(value, prop))
{
context.WriteByte(BinaryTypeCode.PropertySkip);
}
else
{
WritePropertyOrSkip(value, prop, wrapper, context, nextDepth); WritePropertyOrSkip(value, prop, wrapper, context, nextDepth);
} }
} }
} }
/// <summary>
/// Polymorphic marker writing — extracted from WriteObject to keep hot path small.
/// Cold path: polymorphism is rare, NoInlining call overhead acceptable.
/// </summary>
[MethodImpl(MethodImplOptions.NoInlining)]
private static void WritePolymorphicMarker<TOutput>(BinarySerializationContext<TOutput> context, Type polyRuntimeType, int cachedObjectCacheIndex)
where TOutput : struct, IBinaryOutputBase
{
if (cachedObjectCacheIndex >= 0)
{
// Combined poly + RefFirst marker (69/71)
context.WritePolymorphicPrefix(polyRuntimeType, cachedObjectCacheIndex);
}
else
{
var rtWrapper = context.GetWrapper(polyRuntimeType);
if (rtWrapper.PolymorphicSeen && rtWrapper.PolymorphicCacheIndex < BinaryTypeCode.SlotCount)
{
// 2+ poly in this session → FixObj (1 byte)
context.WriteByte((byte)rtWrapper.PolymorphicCacheIndex);
}
else
{
// First poly in this session → ObjectWithTypeName + assigns slot
context.WritePolymorphicPrefix(polyRuntimeType);
context.WriteByte(BinaryTypeCode.Object);
}
}
}
/// <summary>
/// Polymorphic object writing — handles combined poly+ref markers.
/// Cold path: polymorphism is rare, NoInlining acceptable.
/// Poly always implies UseMetadata=false (checked in WritePropertyOrSkip).
/// </summary>
[MethodImpl(MethodImplOptions.NoInlining)]
private static void WriteObjectPolymorphic<TOutput>(object value, TypeMetadataWrapper<BinarySerializeTypeMetadata> wrapper, BinarySerializationContext<TOutput> context, int depth, Type polyRuntimeType)
where TOutput : struct, IBinaryOutputBase
{
var metadata = wrapper.Metadata;
// Reference handling
var cachedObjectCacheIndex = -1;
if (context.UseTypeReferenceHandling(metadata))
{
if (context.TryConsumeWritePlanEntry(out var planEntry))
{
ValidateWritePlanObject(in planEntry, value, wrapper);
if (planEntry.IsFirst)
{
cachedObjectCacheIndex = planEntry.CacheMapIndex;
}
else
{
WriteObjectRef(context, planEntry.CacheMapIndex);
return;
}
}
}
// Poly marker (handles combined poly+ref)
WritePolymorphicMarker(context, polyRuntimeType, cachedObjectCacheIndex);
WriteObjectProperties(value, wrapper, context, depth, false);
}
/// <summary> /// <summary>
/// Checks if a property value is null or default without boxing for value types. /// Checks if a property value is null or default without boxing for value types.
/// </summary> /// </summary>
@ -1240,88 +1453,89 @@ public static partial class AcBinarySerializer
/// <summary> /// <summary>
/// Writes a property value using typed getters to avoid boxing. /// Writes a property value using typed getters to avoid boxing.
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] //[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WritePropertyValue<TOutput>(object obj, BinaryPropertyAccessor prop, BinarySerializationContext<TOutput> context, int depth) //private static void WritePropertyValue<TOutput>(object obj, BinaryPropertyAccessor prop, BinarySerializationContext<TOutput> context, int depth)
where TOutput : struct, IBinaryOutputBase // where TOutput : struct, IBinaryOutputBase
{ //{
switch (prop.AccessorType) // switch (prop.AccessorType)
{ // {
case PropertyAccessorType.Int32: // case PropertyAccessorType.Int32:
WriteInt32(prop.GetInt32(obj), context); // WriteInt32(prop.GetInt32(obj), context);
return; // return;
case PropertyAccessorType.Int64: // case PropertyAccessorType.Int64:
WriteInt64(prop.GetInt64(obj), context); // WriteInt64(prop.GetInt64(obj), context);
return; // return;
case PropertyAccessorType.Boolean: // case PropertyAccessorType.Boolean:
context.WriteByte(prop.GetBoolean(obj) ? BinaryTypeCode.True : BinaryTypeCode.False); // context.WriteByte(prop.GetBoolean(obj) ? BinaryTypeCode.True : BinaryTypeCode.False);
return; // return;
case PropertyAccessorType.Double: // case PropertyAccessorType.Double:
WriteFloat64Unsafe(prop.GetDouble(obj), context); // WriteFloat64Unsafe(prop.GetDouble(obj), context);
return; // return;
case PropertyAccessorType.Single: // case PropertyAccessorType.Single:
WriteFloat32Unsafe(prop.GetSingle(obj), context); // WriteFloat32Unsafe(prop.GetSingle(obj), context);
return; // return;
case PropertyAccessorType.Decimal: // case PropertyAccessorType.Decimal:
WriteDecimalUnsafe(prop.GetDecimal(obj), context); // WriteDecimalUnsafe(prop.GetDecimal(obj), context);
return; // return;
case PropertyAccessorType.DateTime: // case PropertyAccessorType.DateTime:
WriteDateTimeUnsafe(prop.GetDateTime(obj), context); // WriteDateTimeUnsafe(prop.GetDateTime(obj), context);
return; // return;
case PropertyAccessorType.Byte: // case PropertyAccessorType.Byte:
context.WriteByte(BinaryTypeCode.UInt8); // context.WriteByte(BinaryTypeCode.UInt8);
context.WriteByte(prop.GetByte(obj)); // context.WriteByte(prop.GetByte(obj));
return; // return;
case PropertyAccessorType.Int16: // case PropertyAccessorType.Int16:
WriteInt16Unsafe(prop.GetInt16(obj), context); // WriteInt16Unsafe(prop.GetInt16(obj), context);
return; // return;
case PropertyAccessorType.UInt16: // case PropertyAccessorType.UInt16:
WriteUInt16Unsafe(prop.GetUInt16(obj), context); // WriteUInt16Unsafe(prop.GetUInt16(obj), context);
return; // return;
case PropertyAccessorType.UInt32: // case PropertyAccessorType.UInt32:
WriteUInt32(prop.GetUInt32(obj), context); // WriteUInt32(prop.GetUInt32(obj), context);
return; // return;
case PropertyAccessorType.UInt64: // case PropertyAccessorType.UInt64:
WriteUInt64(prop.GetUInt64(obj), context); // WriteUInt64(prop.GetUInt64(obj), context);
return; // return;
case PropertyAccessorType.Guid: // case PropertyAccessorType.Guid:
WriteGuidUnsafe(prop.GetGuid(obj), context); // WriteGuidUnsafe(prop.GetGuid(obj), context);
return; // return;
case PropertyAccessorType.Enum: // case PropertyAccessorType.Enum:
var enumValue = prop.GetEnumAsInt32(obj); // var enumValue = prop.GetEnumAsInt32(obj);
if (BinaryTypeCode.TryEncodeTinyInt(enumValue, out var tiny)) // if (BinaryTypeCode.TryEncodeTinyInt(enumValue, out var tiny))
{ // {
context.WriteByte(BinaryTypeCode.Enum); // context.WriteByte(BinaryTypeCode.Enum);
context.WriteByte(tiny); // context.WriteByte(tiny);
} // }
else // else
{ // {
context.WriteByte(BinaryTypeCode.Enum); // context.WriteByte(BinaryTypeCode.Enum);
context.WriteByte(BinaryTypeCode.Int32); // context.WriteByte(BinaryTypeCode.Int32);
context.WriteVarInt(enumValue); // context.WriteVarInt(enumValue);
} // }
return; // return;
case PropertyAccessorType.String: // case PropertyAccessorType.String:
{ // {
// Fast path: typed getter, no boxing, no Type.GetTypeCode() call // // Fast path: typed getter, no boxing, no Type.GetTypeCode() call
var strValue = prop.GetString(obj); // var strValue = prop.GetString(obj);
if (strValue != null) // if (strValue != null)
WriteString(strValue, context); // WriteString(strValue, context);
else // else
context.WriteByte(BinaryTypeCode.Null); // context.WriteByte(BinaryTypeCode.Null);
return; // return;
} // }
default: // default:
// Fallback to object getter for reference types // // Fallback to object getter for reference types
var value = prop.GetValue(obj); // var value = prop.GetValue(obj);
WriteValue(value, prop.PropertyType, context, depth); // WriteValue(value, prop.PropertyType, context, depth);
return; // return;
} // }
} //}
/// <summary> /// <summary>
/// Writes a property value OR a skip marker if the value is default/null. /// Writes a property value OR a skip marker if the value is default/null.
/// Single-pass optimization: checks default + writes value in one operation. /// Delegates to PropertyWriter bridge methods which handle UseMetadata internally:
/// Avoids double getter calls. /// UseMetadata=true: skip marker for defaults, type code + value for non-defaults.
/// UseMetadata=false (markerless): raw value only, no skip markers.
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WritePropertyOrSkip<TOutput>(object obj, BinaryPropertyAccessor prop, TypeMetadataWrapper<BinarySerializeTypeMetadata> parentWrapper, BinarySerializationContext<TOutput> context, int depth) private static void WritePropertyOrSkip<TOutput>(object obj, BinaryPropertyAccessor prop, TypeMetadataWrapper<BinarySerializeTypeMetadata> parentWrapper, BinarySerializationContext<TOutput> context, int depth)
@ -1330,143 +1544,47 @@ public static partial class AcBinarySerializer
switch (prop.AccessorType) switch (prop.AccessorType)
{ {
case PropertyAccessorType.Int32: case PropertyAccessorType.Int32:
{ context.WriteInt32Property(prop.GetInt32(obj));
int value = prop.GetInt32(obj); return;
if (value == 0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteInt32(value, context);
return;
}
case PropertyAccessorType.Int64: case PropertyAccessorType.Int64:
{ context.WriteInt64Property(prop.GetInt64(obj));
long value = prop.GetInt64(obj); return;
if (value == 0L)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteInt64(value, context);
return;
}
case PropertyAccessorType.Boolean: case PropertyAccessorType.Boolean:
{ context.WriteBoolProperty(prop.GetBoolean(obj));
bool value = prop.GetBoolean(obj); return;
if (!value)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
context.WriteByte(BinaryTypeCode.True);
return;
}
case PropertyAccessorType.Double: case PropertyAccessorType.Double:
{ context.WriteFloat64Property(prop.GetDouble(obj));
double value = prop.GetDouble(obj); return;
if (value == 0.0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteFloat64Unsafe(value, context);
return;
}
case PropertyAccessorType.Single: case PropertyAccessorType.Single:
{ context.WriteFloat32Property(prop.GetSingle(obj));
float value = prop.GetSingle(obj); return;
if (value == 0f)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteFloat32Unsafe(value, context);
return;
}
case PropertyAccessorType.Decimal: case PropertyAccessorType.Decimal:
{ context.WriteDecimalProperty(prop.GetDecimal(obj));
decimal value = prop.GetDecimal(obj); return;
if (value == 0m)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteDecimalUnsafe(value, context);
return;
}
case PropertyAccessorType.DateTime: case PropertyAccessorType.DateTime:
{ context.WriteDateTimeProperty(prop.GetDateTime(obj));
DateTime value = prop.GetDateTime(obj); return;
// DateTime always written (no default skip)
WriteDateTimeUnsafe(value, context);
return;
}
case PropertyAccessorType.Byte: case PropertyAccessorType.Byte:
{ context.WriteByteProperty(prop.GetByte(obj));
byte value = prop.GetByte(obj); return;
if (value == 0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
{
context.WriteByte(BinaryTypeCode.UInt8);
context.WriteByte(value);
}
return;
}
case PropertyAccessorType.Int16: case PropertyAccessorType.Int16:
{ context.WriteInt16Property(prop.GetInt16(obj));
short value = prop.GetInt16(obj); return;
if (value == 0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteInt16Unsafe(value, context);
return;
}
case PropertyAccessorType.UInt16: case PropertyAccessorType.UInt16:
{ context.WriteUInt16Property(prop.GetUInt16(obj));
ushort value = prop.GetUInt16(obj); return;
if (value == 0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteUInt16Unsafe(value, context);
return;
}
case PropertyAccessorType.UInt32: case PropertyAccessorType.UInt32:
{ context.WriteUInt32Property(prop.GetUInt32(obj));
uint value = prop.GetUInt32(obj); return;
if (value == 0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteUInt32(value, context);
return;
}
case PropertyAccessorType.UInt64: case PropertyAccessorType.UInt64:
{ context.WriteUInt64Property(prop.GetUInt64(obj));
ulong value = prop.GetUInt64(obj); return;
if (value == 0)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteUInt64(value, context);
return;
}
case PropertyAccessorType.Guid: case PropertyAccessorType.Guid:
{ context.WriteGuidProperty(prop.GetGuid(obj));
Guid value = prop.GetGuid(obj); return;
if (value == Guid.Empty)
context.WriteByte(BinaryTypeCode.PropertySkip);
else
WriteGuidUnsafe(value, context);
return;
}
case PropertyAccessorType.Enum: case PropertyAccessorType.Enum:
{ context.WriteEnumInt32Property(prop.GetEnumAsInt32(obj));
int enumValue = prop.GetEnumAsInt32(obj); return;
if (enumValue == 0)
{
context.WriteByte(BinaryTypeCode.PropertySkip);
}
else if (BinaryTypeCode.TryEncodeTinyInt(enumValue, out var tiny))
{
context.WriteByte(BinaryTypeCode.Enum);
context.WriteByte(tiny);
}
else
{
context.WriteByte(BinaryTypeCode.Enum);
context.WriteByte(BinaryTypeCode.Int32);
context.WriteVarInt(enumValue);
}
return;
}
case PropertyAccessorType.String: case PropertyAccessorType.String:
{ {
// Fast path: typed getter, no boxing, no Type.GetTypeCode() call // Fast path: typed getter, no boxing, no Type.GetTypeCode() call
@ -1500,15 +1618,6 @@ public static partial class AcBinarySerializer
{ {
var runtimeType = value.GetType(); var runtimeType = value.GetType();
// System.Object declared property → prefix with ObjectWithTypeName marker + TypeName
// so the deserializer can resolve the concrete runtime type.
// The normal Object/ObjectRefFirst marker follows as usual.
if (prop.IsObjectDeclaredType && !context.UseMetadata)
{
context.WriteByte(BinaryTypeCode.ObjectWithTypeName);
context.WriteStringUtf8(runtimeType.AssemblyQualifiedName!);
}
var complexIdx = prop.ComplexPropertyIndex; var complexIdx = prop.ComplexPropertyIndex;
if (complexIdx >= 0) if (complexIdx >= 0)
{ {
@ -1518,11 +1627,16 @@ public static partial class AcBinarySerializer
propWrapper = context.GetWrapper(runtimeType); propWrapper = context.GetWrapper(runtimeType);
parentWrapper.SetPropertyTypeWrapper(complexIdx, propWrapper); parentWrapper.SetPropertyTypeWrapper(complexIdx, propWrapper);
} }
WriteValueNonPrimitiveWithWrapper(value, propWrapper, context, depth); if (!context.UseMetadata && prop.IsPolymorphicCandidate && runtimeType != prop.PropertyType)
WriteValueNonPrimitiveWithWrapperPoly(value, propWrapper, context, depth, runtimeType);
else
WriteValueNonPrimitiveWithWrapper(value, propWrapper, context, depth);
} }
else else
{ {
// Non-complex in default case (nullable value type, etc.) // Non-complex in default case (nullable value type, etc.)
if (!context.UseMetadata && prop.IsPolymorphicCandidate && runtimeType != prop.PropertyType)
context.WritePolymorphicPrefix(runtimeType);
WriteValueNonPrimitive(value, runtimeType, context, depth); WriteValueNonPrimitive(value, runtimeType, context, depth);
} }
} }
@ -1531,62 +1645,6 @@ public static partial class AcBinarySerializer
} }
} }
/// <summary>
/// Writes a property value without type marker byte (markerless mode, UseMetadata=false).
/// All values are written including defaults — no PropertySkip markers.
/// Only called for non-nullable value types with ExpectedTypeCode set.
/// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)]
private static void WritePropertyMarkerless<TOutput>(object obj, BinaryPropertyAccessor prop, BinarySerializationContext<TOutput> context)
where TOutput : struct, IBinaryOutputBase
{
switch (prop.AccessorType)
{
case PropertyAccessorType.Int32:
context.WriteVarInt(prop.GetInt32(obj));
return;
case PropertyAccessorType.Int64:
context.WriteVarLong(prop.GetInt64(obj));
return;
case PropertyAccessorType.Double:
context.WriteRaw(prop.GetDouble(obj));
return;
case PropertyAccessorType.Single:
context.WriteRaw(prop.GetSingle(obj));
return;
case PropertyAccessorType.Decimal:
context.WriteDecimalBits(prop.GetDecimal(obj));
return;
case PropertyAccessorType.DateTime:
context.WriteDateTimeBits(prop.GetDateTime(obj));
return;
case PropertyAccessorType.Guid:
context.WriteGuidBits(prop.GetGuid(obj));
return;
case PropertyAccessorType.Byte:
context.WriteByte(prop.GetByte(obj));
return;
case PropertyAccessorType.Int16:
context.WriteRaw(prop.GetInt16(obj));
return;
case PropertyAccessorType.UInt16:
context.WriteRaw(prop.GetUInt16(obj));
return;
case PropertyAccessorType.UInt32:
context.WriteVarUInt(prop.GetUInt32(obj));
return;
case PropertyAccessorType.UInt64:
context.WriteVarULong(prop.GetUInt64(obj));
return;
case PropertyAccessorType.Boolean:
context.WriteByte(prop.GetBoolean(obj) ? (byte)1 : (byte)0);
return;
case PropertyAccessorType.Enum:
context.WriteVarInt(prop.GetEnumAsInt32(obj));
return;
}
}
#endregion #endregion
#region Specialized Array Writers #region Specialized Array Writers

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@ -90,7 +90,7 @@ public sealed class AcBinarySerializerOptions : AcSerializerOptions
/// Compact: VarInt + UTF-8 (default, smaller output). /// Compact: VarInt + UTF-8 (default, smaller output).
/// Fast: Fixed-width integers + UTF-16 (larger output, faster encode/decode). /// Fast: Fixed-width integers + UTF-16 (larger output, faster encode/decode).
/// </summary> /// </summary>
public WireMode WireMode { get; set; } = WireMode.Fast; public WireMode WireMode { get; set; } = WireMode.Compact;
/// <summary> /// <summary>
/// Controls how string interning is applied during serialization. /// Controls how string interning is applied during serialization.

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@ -34,6 +34,15 @@ public abstract class BinaryPropertyAccessorBase : PropertyAccessorBase
/// </summary> /// </summary>
public bool IsObjectDeclaredType { get; } public bool IsObjectDeclaredType { get; }
/// <summary>
/// True when declared property type is a non-sealed reference type (not string).
/// Polymorphism is possible: runtime type may differ from declared type.
/// Covers object, interface, abstract, and non-sealed class properties.
/// When true, serializer checks GetType() != PropertyType and writes polymorphic prefix.
/// When false (sealed, value type, string): 0 overhead, no check needed.
/// </summary>
public bool IsPolymorphicCandidate { get; }
/// <summary> /// <summary>
/// Cached [AcStringIntern] attribute value for this property. /// Cached [AcStringIntern] attribute value for this property.
/// null = no attribute (follow global StringInterningMode) /// null = no attribute (follow global StringInterningMode)
@ -66,6 +75,9 @@ public abstract class BinaryPropertyAccessorBase : PropertyAccessorBase
{ {
IsStringCollectionProperty = IsStringCollection(prop.PropertyType); IsStringCollectionProperty = IsStringCollection(prop.PropertyType);
IsObjectDeclaredType = prop.PropertyType == typeof(object); IsObjectDeclaredType = prop.PropertyType == typeof(object);
IsPolymorphicCandidate = !prop.PropertyType.IsSealed
&& !prop.PropertyType.IsValueType
&& prop.PropertyType != typeof(string);
// All typed getters are initialized in PropertyAccessorBase // All typed getters are initialized in PropertyAccessorBase
if (enableInternString && (AccessorType == PropertyAccessorType.String || IsStringCollectionProperty)) if (enableInternString && (AccessorType == PropertyAccessorType.String || IsStringCollectionProperty))

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@ -4,150 +4,151 @@ namespace AyCode.Core.Serializers.Binaries;
/// <summary> /// <summary>
/// Binary type codes for serialization. /// Binary type codes for serialization.
/// Designed for fast switch dispatch and compact storage. /// Markers 0..(SlotCount-1) are reserved for object type slot indices (FixObj).
/// Lower 5 bits = type code (0-31) /// All other type markers are defined relative to SlotCount.
/// Upper 3 bits = flags (interned, reference, has-type-info)
/// </summary> /// </summary>
internal static class BinaryTypeCode internal static class BinaryTypeCode
{ {
// Primitive types (0-15) /// <summary>
public const byte Null = 0; /// Number of reserved FixObj slot markers (0..SlotCount-1).
public const byte True = 1; /// When a marker byte is less than SlotCount, it represents an object
public const byte False = 2; /// whose type wrapper is cached at _wrapperSlots[marker].
public const byte Int8 = 3; /// All type markers are defined relative to this constant.
public const byte UInt8 = 4; /// </summary>
public const byte Int16 = 5; public const int SlotCount = 64;
public const byte UInt16 = 6;
public const byte Int32 = 7;
public const byte UInt32 = 8;
public const byte Int64 = 9;
public const byte UInt64 = 10;
public const byte Float32 = 11;
public const byte Float64 = 12;
public const byte Decimal = 13;
public const byte Char = 14;
// String types (16-19)
public const byte String = 16; // Inline UTF8 string (non-interned)
public const byte StringInterned = 17; // Reference to interned string by index (2+ occurrence)
public const byte StringEmpty = 18; // Empty string marker
public const byte StringInternFirst = 19; // First occurrence of interned string - read content + register in cache
// Date/Time types (20-23)
public const byte DateTime = 20;
public const byte DateTimeOffset = 21;
public const byte TimeSpan = 22;
public const byte Guid = 23;
// Enum (24)
public const byte Enum = 24;
// Complex types (25-31)
public const byte Object = 25; // Start of object (non-tracked OR first occurrence when ref tracking)
//public const byte ObjectEnd = 26; // UNUSED — property count is known at compile-time (SGen) or reflection-time (runtime), no end marker needed
public const byte ObjectRef = 27; // Reference to previously serialized object (2+ occurrence)
public const byte Array = 28; // Start of array/list
public const byte Dictionary = 29; // Start of dictionary
public const byte ByteArray = 30; // Optimized byte[] storage
public const byte ObjectWithMetadata = 31; // Object with metadata (UseMetadata mode, non-tracked OR first occurrence)
// Extended markers for first occurrence tracking (66-67, after FixStr range) // Complex types (SlotCount + 0..7)
public const byte ObjectRefFirst = 66; // First occurrence of tracked object (ref handling enabled) public const byte Object = SlotCount + 0; // 64 — Start of object (fallback when >SlotCount types)
public const byte ObjectWithMetadataRefFirst = 67; // First occurrence of tracked object with metadata public const byte ObjectRef = SlotCount + 1; // 65 — Reference to previously serialized object (2+ occurrence)
public const byte Array = SlotCount + 2; // 66 — Start of array/list
// Polymorphic object markers (68-69): self-describing object for polymorphic properties. public const byte Dictionary = SlotCount + 3; // 67 — Start of dictionary
// Used when declared property type ≠ runtime type AND UseMetadata=false. public const byte ByteArray = SlotCount + 4; // 68 — Optimized byte[] storage
// Serializer writes runtime type name inline so deserializer can resolve the concrete type. public const byte ObjectWithMetadata = SlotCount + 5; // 69 — Object with metadata (UseMetadata mode)
// Format: [ObjectWithTypeName (68)] [VarUInt typeNameLen] [UTF8 typeName] [properties...] [ObjectEnd] public const byte ObjectRefFirst = SlotCount + 6; // 70 — First occurrence of tracked object (ref handling enabled)
// Format: [ObjectWithTypeNameRefFirst (69)] [VarUInt cacheIndex] [VarUInt typeNameLen] [UTF8 typeName] [properties...] [ObjectEnd] public const byte ObjectWithMetadataRefFirst = SlotCount + 7; // 71 — First occurrence of tracked object with metadata
public const byte ObjectWithTypeName = 68;
public const byte ObjectWithTypeNameRefFirst = 69; // Polymorphic object markers (SlotCount + 8..11)
// Used when declared property type != runtime type AND UseMetadata=false.
// Special markers (32+, for header/meta) //
// Header flags byte structure (for values >= 64): // PREFIX markers (inner Object/Array/Dict marker follows):
// Bit 0 (0x01): HasMetadata // [ObjectWithTypeName] [UTF8 typeName] [Object | Array | ...] [body...]
// Bit 1 (0x02): HasReferenceHandling // [ObjectWithTypeIndex] [VarUInt typeIndex] [Object | Array | ...] [body...]
// Values 32, 33 are legacy for backward compatibility //
public const byte MetadataHeader = 32; // Binary has metadata section (legacy, implies HasReferenceHandling=true) // COMBINED markers (no inner marker — object body follows directly):
public const byte NoMetadataHeader = 33; // Binary has no metadata (legacy, implies HasReferenceHandling=true) // [ObjectWithTypeNameRefFirst] [UTF8 typeName] [VarUInt refCacheIndex] [properties...]
// [ObjectWithTypeIndexRefFirst] [VarUInt typeIndex] [VarUInt refCacheIndex] [properties...]
// FixStr range: 34-65 (32 values for strings 0-31 bytes) //
// ObjectRef for 2+ occurrence: written directly, NO poly prefix needed.
public const byte ObjectWithTypeName = SlotCount + 8; // 72
public const byte ObjectWithTypeNameRefFirst = SlotCount + 9; // 73
public const byte ObjectWithTypeIndex = SlotCount + 10; // 74
public const byte ObjectWithTypeIndexRefFirst = SlotCount + 11; // 75
// Primitive types (SlotCount + 12..26)
public const byte Null = SlotCount + 12; // 76
public const byte True = SlotCount + 13; // 77
public const byte False = SlotCount + 14; // 78
public const byte Int8 = SlotCount + 15; // 79
public const byte UInt8 = SlotCount + 16; // 80
public const byte Int16 = SlotCount + 17; // 81
public const byte UInt16 = SlotCount + 18; // 82
public const byte Int32 = SlotCount + 19; // 83
public const byte UInt32 = SlotCount + 20; // 84
public const byte Int64 = SlotCount + 21; // 85
public const byte UInt64 = SlotCount + 22; // 86
public const byte Float32 = SlotCount + 23; // 87
public const byte Float64 = SlotCount + 24; // 88
public const byte Decimal = SlotCount + 25; // 89
public const byte Char = SlotCount + 26; // 90
// String types (SlotCount + 27..30)
public const byte String = SlotCount + 27; // 91 — Inline UTF8 string (non-interned)
public const byte StringInterned = SlotCount + 28; // 92 — Reference to interned string by index (2+ occurrence)
public const byte StringEmpty = SlotCount + 29; // 93 — Empty string marker
public const byte StringInternFirst = SlotCount + 30; // 94 — First occurrence of interned string
// Date/Time types (SlotCount + 31..34)
public const byte DateTime = SlotCount + 31; // 95
public const byte DateTimeOffset = SlotCount + 32; // 96
public const byte TimeSpan = SlotCount + 33; // 97
public const byte Guid = SlotCount + 34; // 98
// Enum (SlotCount + 35)
public const byte Enum = SlotCount + 35; // 99
// Legacy header markers (SlotCount + 36..37)
public const byte MetadataHeader = SlotCount + 36; // 100 — Binary has metadata section (legacy, implies HasReferenceHandling=true)
public const byte NoMetadataHeader = SlotCount + 37; // 101 — Binary has no metadata (legacy, implies HasReferenceHandling=true)
// Property skip marker (SlotCount + 38)
public const byte PropertySkip = SlotCount + 38; // 102 — Marks a property with default/null value (skipped during serialization)
// FixStr range: SlotCount + 39 .. SlotCount + 70 (32 values for strings 0-31 bytes)
// FixStr encoding: FixStrBase + length (0-31) // FixStr encoding: FixStrBase + length (0-31)
// This saves 1 byte for short strings by combining type + length in single byte // This saves 1 byte for short strings by combining type + length in single byte
public const byte FixStrBase = 34; // Base value for FixStr (0xA0 in MessagePack style, but we use 34) public const byte FixStrBase = SlotCount + 39; // 103
public const byte FixStrMax = 65; // FixStrBase + 31 = maximum FixStr code public const byte FixStrMax = FixStrBase + 31; // 134
public const int FixStrMaxLength = 31; // Maximum string length encodable as FixStr public const int FixStrMaxLength = 31;
// New flag-based header markers (48+) - moved to after FixStr range // Flag-based header markers (must be 16-aligned for flag bits in lower nibble)
// Note: FixStr range 34-65 overlaps with old HeaderFlagsBase, so headers use version byte prefix
// Header byte structure: (marker & 0xF0) == HeaderFlagsBase, flags in (marker & 0x0F) // Header byte structure: (marker & 0xF0) == HeaderFlagsBase, flags in (marker & 0x0F)
public const byte HeaderFlagsBase = 48; // Base value for flag-based headers (0x30) public const byte HeaderFlagsBase = 144; // 0x90 — next 16-aligned value after FixStrMax
public const byte HeaderFlag_Metadata = 0x01; // Bit 0: property metadata included public const byte HeaderFlag_Metadata = 0x01; // Bit 0: property metadata included
// Reference handling uses 2 separate bits: // Reference handling uses 2 separate bits:
// Bit 1 (0x02): OnlyId - reference handling for IId objects only // Bit 1 (0x02): OnlyId - reference handling for IId objects only
// Bit 2 (0x04): All - reference handling for all objects (includes OnlyId) // Bit 2 (0x04): All - reference handling for all objects (includes OnlyId)
// None = both false, OnlyId = 0x02, All = 0x06 (both bits set) // None = both false, OnlyId = 0x02, All = 0x06 (both bits set)
public const byte HeaderFlag_RefHandling_OnlyId = 0x02; public const byte HeaderFlag_RefHandling_OnlyId = 0x02;
public const byte HeaderFlag_RefHandling_All = 0x04; public const byte HeaderFlag_RefHandling_All = 0x04;
public const byte HeaderFlag_HasFooterPosition = 0x08; // Bit 3: 4-byte footer position follows flags (legacy) public const byte HeaderFlag_HasFooterPosition = 0x08; // Bit 3: 4-byte footer position follows flags (legacy)
public const byte HeaderFlag_HasCacheCount = 0x08; // Bit 3 (reused): VarUInt cache count follows flags (new marker-based format) public const byte HeaderFlag_HasCacheCount = 0x08; // Bit 3 (reused): VarUInt cache count follows flags (new marker-based format)
// Compact integer variants (for VarInt optimization) // Compact integer variants (unchanged)
public const byte Int32Tiny = 192; // -16 to 63 stored in single byte (value = code - 192 - 16) public const byte Int32Tiny = 192; // -16 to 47 stored in single byte (value = code - 192 - 16)
public const byte Int32TinyMax = 255; // Upper bound for tiny int (192 + 64 - 1 = 255) public const byte Int32TinyMax = 255; // Upper bound for tiny int (192 + 64 - 1 = 255)
// Property skip marker (for single-pass serialization optimization)
// CRITICAL: Must be in the "reserved" range 67-191 (after FixStr, before TinyInt)
// AND must not conflict with any other type codes.
// Using 191 (0xBF) - the highest value before TinyInt range starts at 192.
// This ensures it won't be confused with:
// - Primitive types (0-31)
// - FixStr (34-65)
// - TinyInt values (192-255)
public const byte PropertySkip = 191; // Marks a property with default/null value (skipped during serialization)
/// <summary> /// <summary>
/// Check if type code represents a reference (string or object). /// Check if type code represents a reference (string or object).
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static bool IsReference(byte code) => code is StringInterned or ObjectRef; public static bool IsReference(byte code) => code is StringInterned or ObjectRef;
/// <summary> /// <summary>
/// Check if type code is a FixStr (short string with length encoded in type code). /// Check if type code is a FixStr (short string with length encoded in type code).
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static bool IsFixStr(byte code) => code is >= FixStrBase and <= FixStrMax; public static bool IsFixStr(byte code) => code is >= FixStrBase and <= FixStrMax;
/// <summary> /// <summary>
/// Decode FixStr length from type code. /// Decode FixStr length from type code.
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static int DecodeFixStrLength(byte code) => code - FixStrBase; public static int DecodeFixStrLength(byte code) => code - FixStrBase;
/// <summary> /// <summary>
/// Encode FixStr type code for given byte length (0-31). /// Encode FixStr type code for given byte length (0-31).
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static byte EncodeFixStr(int byteLength) => (byte)(FixStrBase + byteLength); public static byte EncodeFixStr(int byteLength) => (byte)(FixStrBase + byteLength);
/// <summary> /// <summary>
/// Check if byte length can be encoded as FixStr. /// Check if byte length can be encoded as FixStr.
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static bool CanEncodeAsFixStr(int byteLength) => byteLength is >= 0 and <= 31; public static bool CanEncodeAsFixStr(int byteLength) => byteLength is >= 0 and <= 31;
/// <summary> /// <summary>
/// Check if type code is a tiny int (single byte int32 encoding). /// Check if type code is a tiny int (single byte int32 encoding).
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static bool IsTinyInt(byte code) => code >= Int32Tiny; public static bool IsTinyInt(byte code) => code >= Int32Tiny;
/// <summary> /// <summary>
/// Decode tiny int value from type code. /// Decode tiny int value from type code.
/// </summary> /// </summary>
[MethodImpl(MethodImplOptions.AggressiveInlining)] [MethodImpl(MethodImplOptions.AggressiveInlining)]
public static int DecodeTinyInt(byte code) => code - Int32Tiny - 16; public static int DecodeTinyInt(byte code) => code - Int32Tiny - 16;
/// <summary> /// <summary>
/// Encode small int value (-16 to 47) as type code. /// Encode small int value (-16 to 47) as type code.
/// Returns true if value fits in tiny encoding. /// Returns true if value fits in tiny encoding.
@ -164,4 +165,4 @@ internal static class BinaryTypeCode
code = 0; code = 0;
return false; return false;
} }
} }

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@ -0,0 +1,96 @@
# Binaries
High-performance binary serialization/deserialization with two-phase processing, multiple wire modes, string interning, and source generation support. The primary goal is **speed**: every design decision prioritizes minimal latency and maximum throughput.
## Architecture
### Two-Phase Serialization
1. **Scan Pass** (`AcBinarySerializer.ScanPass.cs`) — Walks the object graph to detect multi-referenced objects and build the reference table.
2. **Serialize Pass** (`AcBinarySerializer.BinarySerializationContext.cs`) — Writes the binary output using the reference table from the scan pass.
The serializer is generic over `TOutput` for strategy selection (`ArrayBinaryOutput` vs `BufferWriterBinaryOutput`).
### Wire Format
`BinaryTypeCode.cs` defines 100+ type markers:
| Range | Purpose |
|---|---|
| 063 | **FixObj** — Compiled type slot indices |
| 6471 | **Complex types** — Object, ObjectRef, Array, Dictionary, ByteArray (with/without metadata) |
| 7275 | **Polymorphic** — ObjectWithTypeName, ObjectWithTypeIndex (with/without RefFirst) |
| 7690 | **Primitives** — Null, Bool, Int864, Float3264, Decimal, Char |
| 9194 | **Strings** — String, StringInterned, StringEmpty, StringInternFirst |
| 9598 | **Date/Time** — DateTime, DateTimeOffset, TimeSpan, Guid |
| 103134 | **FixStr** — Short strings with length encoded in marker |
| 144+ | **Headers** — Metadata, RefHandling, CacheCount flags |
| 192255 | **Tiny ints** — Single-byte encoding for values -16 to 47 |
## Key Files
### Serialization
- **`AcBinarySerializer.cs`** — Main serializer entry point, context pool management.
- **`AcBinarySerializer.BinarySerializationContext.cs`** — Core serialization logic, object graph traversal, type writing.
- **`AcBinarySerializer.BinarySerializationContext.PropertyWriters.cs`** — Per-type property write methods.
- **`AcBinarySerializer.BinarySerializationResult.cs`** — Result wrapper (byte[] or IBufferWriter output).
- **`AcBinarySerializer.BinarySerializeTypeMetadata.cs`** — Cached type metadata for serialization.
- **`AcBinarySerializer.ScanPass.cs`** — Reference scanning phase.
### Deserialization
- **`AcBinaryDeserializer.cs`** — Main deserializer entry point.
- **`AcBinaryDeserializer.BinaryDeserializationContext.cs`** — Core deserialization logic.
- **`AcBinaryDeserializer.BinaryDeserializationContext.Read.cs`** — Primitive read operations.
- **`AcBinaryDeserializer.BinaryDeserializeTypeMetadata.cs`** — Cached type metadata for deserialization.
- **`AcBinaryDeserializer.CrossType.cs`** — Cross-type deserialization (schema evolution).
- **`AcBinaryDeserializer.Populate.cs`** — Object population and merge operations.
### I/O Strategies
- **`BinaryOutputBase.cs`** — Output interface.
- **`ArrayBinaryOutput.cs`** — `ArrayPool`-backed output, fastest for `byte[]` result.
- **`BufferWriterBinaryOutput.cs`** — `IBufferWriter<byte>`-backed output for streaming.
- **`ArrayPooledBufferWriter.cs`** — Concrete `IBufferWriter` implementation.
- **`IBinaryInputBase.cs`** — Input interface.
- **`ArrayBinaryInput.cs`** — Single contiguous `byte[]` input.
- **`SequenceBinaryInput.cs`** — Multi-segment `ReadOnlySequence<byte>` input.
### Configuration & Types
- **`AcBinarySerializerOptions.cs`** — All configuration options and presets.
- **`BinaryTypeCode.cs`** — Wire format type markers.
- **`StringInterningMode.cs`** — Enum: `None`, `Attribute`, `All`.
- **`AcStringInternAttribute.cs`** — Property-level string interning control.
- **`TypeConversionInfo.cs`** — Type conversion tracking for cross-type scenarios.
- **`BinaryPropertyFilterContext.cs`** — Instance-dependent property filtering.
### Property Handling
- **`BinaryPropertyAccessorBase.cs`** — Property accessor for serialization.
- **`BinaryPropertySetterBase.cs`** — Property setter for deserialization.
### Source Generation
- **`IGeneratedBinaryWriter.cs`** — Interface for source-generated writers.
- **`IGeneratedBinaryReader.cs`** — Interface for source-generated readers.
### Exceptions
- **`AcBinaryDeserializationException.cs`** — Rich exception with binary offset context.
## Configuration Options
| Option | Values | Description |
|---|---|---|
| `UseMetadata` | bool | Property hash metadata for cross-type deserialization |
| `UseStringInterning` | None/Attribute/All | String deduplication strategy |
| `ReferenceHandling` | None/OnlyId/All | Circular reference support |
| `WireMode` | Compact/Fast | VarInt+UTF-8 vs fixed-width+UTF-16 |
| `UseCompression` | None/Block/BlockArray | LZ4 compression support |
**Presets:** `Default`, `FastMode`, `ShallowCopy`, `WasmOptimized`.
## Dependencies
- Base classes from parent `Serializers/` folder (`AcSerializerContextBase`, `TypeMetadataBase`, `IdentityMap`, etc.)
- `System.Buffers` (ArrayPool, IBufferWriter)
- LZ4 (optional compression)
---
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@ -0,0 +1,25 @@
# Expressions
Serialization support for LINQ Expression trees and `IQueryable` objects. Converts expressions to a format-agnostic DTO (`AcExpressionNode`) that can be serialized by any of the three serializer formats.
## Key Files
- **`AcExpressionNode.cs`** — DTO representing any Expression node. Contains `ConstantValueType` enum (20+ values) for typed constant representation. Recursive structure mirrors the expression tree.
- **`AcExpressionConverter.cs`** — Converts `Expression``AcExpressionNode`. Handles all expression types (lambda, binary, member access, method call, etc.).
- **`AcExpressionRebuilder.cs`** — Converts `AcExpressionNode``Expression`. Reconstructs the full expression tree from the DTO.
- **`AcExpressionHelper.cs`** — Expression utilities shared across the module.
## Integration
- Automatically triggered in JSON and Toon serializers when an `Expression` or `IQueryable` is encountered during serialization.
- Binary serializer supports expressions via compiled expression delegates.
- `AcSerializerCommon.cs` (parent folder) provides expression type checking helpers (`ExpressionType`, `ExpressionGenericType`).
## Dependencies
- `System.Linq.Expressions`
- `AcSerializerCommon` from parent `Serializers/` folder
---
> **LLM Maintenance:** If you modify code in this folder, update this README to reflect the changes. If you notice the README content does not match the current code, automatically update the README to match the code.

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@ -0,0 +1,52 @@
# Jsons
Custom JSON serialization/deserialization built on `System.Text.Json`'s `Utf8JsonWriter`/`Utf8JsonReader`, optimized for `IId` reference handling and polymorphic types.
## Architecture
- Reference scanning phase (pre-visit) detects multi-referenced objects before serialization.
- Uses `$id`/`$ref` JSON properties for circular reference handling (JSON standard).
- Polymorphic type hints via typename property.
- Context pooling for allocation efficiency.
## Key Files
### Serialization
- **`AcJsonSerializer.cs`** — Main serializer entry point, context pool management.
- **`AcJsonSerializer.JsonSerializationContext.cs`** — Core serialization logic with `Utf8JsonWriter`.
- **`AcJsonSerializer.JsonSerializeTypeMetadata.cs`** — Cached type metadata for serialization.
- **`AcJsonSerializerOptions.cs`** — Configuration and presets.
### Deserialization
- **`AcJsonDeserializer.cs`** — Main deserializer entry point.
- **`AcJsonDeserializer.JsonDeserializationContext.cs`** — Core deserialization logic.
- **`AcJsonDeserializer.JsonDeserializeTypeMetadata.cs`** — Cached type metadata for deserialization.
- **`AcJsonDeserializer.JsonElement.cs`** — `JsonElement` processing.
- **`AcJsonDeserializer.Primitives.cs`** — Primitive type conversions.
- **`AcJsonDeserializer.Utf8Reader.cs`** — `Utf8JsonReader` operations.
### Supporting
- **`AcJsonContextBase.cs`** — Base context shared between serializer and deserializer.
- **`JsonPropertyAccessorBase.cs`** — Property accessor for serialization.
- **`JsonPropertySetterBase.cs`** — Property setter for deserialization.
- **`MergeContractResolver.cs`** — Contract resolution for merge/populate operations.
- **`AcJsonDeserializationException.cs`** — Rich exception with JSON context, type info, and original exception.
## Configuration
| Option | Description |
|---|---|
| `ReferenceHandling` | `All` required — `OnlyId` not fully implemented for JSON |
| `MaxDepth` | Maximum object graph depth |
| `ThrowOnCircularReference` | Throw vs silently handle circular refs |
**Presets:** `Default` (with refs), `ShallowCopy`, `WithMaxDepth`, `WithoutReferenceHandling`.
## Dependencies
- Base classes from parent `Serializers/` folder
- `System.Text.Json` (`Utf8JsonWriter`, `Utf8JsonReader`, `JsonElement`)
---
> **LLM Maintenance:** If you modify code in this folder, update this README to reflect the changes. If you notice the README content does not match the current code, automatically update the README to match the code.

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@ -0,0 +1,77 @@
# Serializers
High-performance serialization framework supporting three formats — Binary, JSON, and Toon — built on a shared infrastructure.
## Folder Structure
| Folder | Purpose |
|---|---|
| `Binaries/` | High-performance binary serialization with two-phase scan+serialize |
| `Jsons/` | Custom JSON serialization using `Utf8JsonWriter`/`Utf8JsonReader` |
| `Toons/` | LLM-optimized Token-Oriented Object Notation with @meta/@data sections |
| `Expressions/` | Expression tree serialization (LINQ Expression ↔ DTO) |
| `Attributes/` | Source generator marker attributes |
## Shared Infrastructure (Root Files)
### Core Base Classes
- **`AcSerializerContextBase.cs`** — Generic base context `AcSerializerContextBase<TMetadata, TOptions>` with metadata caching, wrapper slot management, and context pooling. All three serializers derive from this.
- **`AcSerializerOptions.cs`** — Base options: reference handling mode, max depth, custom property mapping, `ThrowOnCircularReference`.
- **`TypeMetadataBase.cs`** — Cached type analysis: readable/writable properties, `IId` detection, complexity flags (`HasComplexProperties`, `NeedsReferenceTracking`, `IsCollection`).
- **`TypeMetadataWrapper.cs`** — Wraps metadata with per-context tracking state: typed `IdentityMap` instances (Int32/Int64/Guid), `SmallIdBitmap`, polymorphic cache, source-gen reader/writer registry lookup.
### Serialization/Deserialization Bases
- **`SerializationContextBase.cs`** — Base for serialization contexts.
- **`DeserializationContextBase.cs`** — Base for deserialization contexts.
- **`SerializeTypeMetadataBase.cs`** — Base for format-specific serialize metadata.
- **`DeserializeTypeMetadataBase.cs`** — Base for format-specific deserialize metadata.
- **`DeserializeChainBase.cs`** — Deserialization chain pattern.
- **`DeserializeCrossTypeBase.cs`** — Cross-type deserialization support.
### Property Handling
- **`PropertyAccessorBase.cs`** — Base for reading property values during serialization.
- **`PropertySetterBase.cs`** — Base for writing property values during deserialization.
- **`PropertyMetadataBase.cs`** — Base property metadata shared across formats.
### Utilities
- **`AcSerializerCommon.cs`** — Expression type checking, queryable type refs, `ThreadLocal` cache helpers, compiled constructor creation.
- **`IdentityMap.cs`** — High-performance hash table optimized for small int keys (bitmap) + chaining for large keys. Used for reference tracking.
- **`FnvHash.cs`** — Deterministic FNV-1a property name hashing (used in Binary `UseMetadata` mode).
- **`ReferenceTracker.cs`** — `ReferenceEqualityComparer` for object identity-based tracking dictionaries.
- **`IIdCollectionMergeHelper.cs`** — Collection merge operations during `PopulateMerge` (handles orphaned item removal).
## Architecture
### Generic Specialization Pattern
```
AcSerializerContextBase<TMetadata, TOptions>
├─ BinarySerializationContext <BinarySerializeTypeMetadata, AcBinarySerializerOptions>
├─ JsonSerializationContext <JsonSerializeTypeMetadata, AcJsonSerializerOptions>
└─ ToonSerializationContext <ToonSerializeTypeMetadata, AcToonSerializerOptions>
```
### Key Design Decisions
- **Sealed derived classes** — All context implementations are sealed for JIT direct calling (no virtual dispatch on hot paths).
- **Context pooling** — Contexts are reused across serializations via thread-safe pools. `ResetTracking()` clears reference maps on pool return.
- **Property ordering** — Hierarchy-aware (base→derived) then alphabetical. Ensures stable property indices across type versions.
- **Typed reference access** — No boxing for common ID types. Pre-cast delegates: `RefIdGetterInt32`, `RefIdGetterInt64`, `RefIdGetterGuid`.
- **Zero-allocation hot paths** — Buffer owned by context, `Span`-based operations, `ArrayPool` for large allocations.
- **Global metadata cache** — Thread-safe per `TMetadata` type, shared across all contexts of that serializer type.
### Reference Handling Modes
| Mode | Description |
|---|---|
| `None` | No tracking, fastest path |
| `OnlyId` | Only `IId<T>` types tracked (Binary only) |
| `All` | All reference types tracked (required for JSON `$ref`) |
---
> **LLM Maintenance:** If you modify code in this folder, update this README to reflect the changes. If you notice the README content does not match the current code, automatically update the README to match the code.

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@ -0,0 +1,80 @@
# Toons
Token-Oriented Object Notation (Toon) — an LLM-optimized serialization format with separate schema (@meta) and data (@data) sections. The primary goal is **LLM accuracy**: maximizing the precision and correctness of LLM responses by providing structured, unambiguous context. Designed for human and LLM readability with minimal token usage.
## Architecture
### Serialization Modes
| Mode | Description |
|---|---|
| `Full` | Both @meta (schema) and @data (values) — default |
| `MetaOnly` | Only @meta section (send schema once, reuse across conversation) |
| `DataOnly` | Only @data section (when schema already sent) |
### Output Sections
- **@meta** — Type definitions, property descriptions, navigation info, constraints.
- **@types** — Per-type schema with constraints and examples.
- **@data** — Actual object values with optional type hints.
### Key Features
- Triple-quote syntax for multi-line strings.
- Topological sorting for complex type relationships.
- Navigation property tracking (foreign keys and relationships).
- Type relation understanding (inheritance, interfaces).
## Key Files
### Core
- **`AcToonSerializer.cs`** — Main serializer entry point and orchestration.
- **`AcToonSerializer.ToonSerializationContext.cs`** — Serialization context.
- **`AcToonSerializer.ToonSerializeTypeMetadata.cs`** — Cached type metadata.
- **`AcToonSerializerOptions.cs`** — Configuration and presets.
- **`AcToonContextBase.cs`** — Base context.
### Output Generation (partial classes of AcToonSerializer)
- **`AcToonSerializer.MetaWriter.cs`** — @meta section generation.
- **`AcToonSerializer.TypeDefinitions.cs`** — @types section generation.
- **`AcToonSerializer.DataSection.cs`** — @data section generation.
- **`AcToonSerializer.Descriptions.cs`** — Property description generation.
### Type Analysis
- **`AcToonSerializer.TopologicalSort.cs`** — Dependency-aware type ordering.
- **`AcToonSerializer.Navigation.cs`** — Navigation property discovery.
- **`AcToonSerializer.ForeignKeys.cs`** — Foreign key relationship detection.
- **`AcToonSerializer.Validation.cs`** — Output validation.
- **`AcToonSerializer.Placeholders.cs`** — Placeholder value generation.
### Attributes & Metadata
- **`AcToonSerializer.Attributes.cs`** — Attribute processing.
- **`AcToonSerializer.AttributeExtraction.cs`** — Attribute value extraction.
- **`ToonDescriptionAttribute.cs`** — Per-property description attribute.
- **`AcNavigationPropertyInfo.cs`** — Navigation property metadata.
- **`ToonTypeRelation.cs`** — Type relationship tracking (inheritance, interfaces).
## Configuration
| Option | Default | Description |
|---|---|---|
| `Mode` | Full | Full/MetaOnly/DataOnly |
| `UseIndentation` | true | Readability control |
| `UseInlineTypeHints` | false | Type hints in data section |
| `UseInlineComments` | false | Comments in data section |
| `ShowCollectionCount` | true | Collection sizes |
| `UseMultiLineStrings` | true | Triple-quote long strings |
| `UseEnhancedMetadata` | true | Rich property metadata |
| `OmitDefaultValues` | true | Skip null/default values |
| `WriteTypeNames` | true | Root type names in data |
**Presets:** `Default`, `MetaOnly`, `DataOnly`, `Compact`, `Verbose`.
## Dependencies
- Base classes from parent `Serializers/` folder
- Expression utilities from `Expressions/` folder (for queryable serialization)
---
> **LLM Maintenance:** If you modify code in this folder, update this README to reflect the changes. If you notice the README content does not match the current code, automatically update the README to match the code.

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@ -43,6 +43,21 @@ public sealed class TypeMetadataWrapper<TMetadata> where TMetadata : TypeMetadat
/// </summary> /// </summary>
internal bool MetadataSeen; internal bool MetadataSeen;
/// <summary>
/// Polymorphic type tracking: has this runtime type been written as a polymorphic prefix?
/// false = first occurrence → write ObjectWithTypeName (68) + full type name.
/// true = repeated → write ObjectWithTypeIndex (70) + PolymorphicCacheIndex.
/// Same pattern as MetadataSeen. Reset by ResetTracking.
/// </summary>
internal bool PolymorphicSeen;
/// <summary>
/// Unified type slot index for FixObj system. Used by both poly and non-poly types.
/// -1 = not yet assigned. Set together with PolymorphicSeen = true.
/// Reset by ResetTracking (per-session, slot order depends on stream encounter order).
/// </summary>
internal int PolymorphicCacheIndex = -1;
/// <summary> /// <summary>
/// UseMetadata cachemap: source property index → target PropertySetter. /// UseMetadata cachemap: source property index → target PropertySetter.
/// Per-context (wrapper-szintű), mert futásonként eltérő source type-pal találkozhat. /// Per-context (wrapper-szintű), mert futásonként eltérő source type-pal találkozhat.
@ -193,6 +208,8 @@ public sealed class TypeMetadataWrapper<TMetadata> where TMetadata : TypeMetadat
public void ResetTracking(bool preRentBuckets = false) public void ResetTracking(bool preRentBuckets = false)
{ {
MetadataSeen = false; MetadataSeen = false;
PolymorphicSeen = false;
PolymorphicCacheIndex = -1;
CacheMap = null; CacheMap = null;
// Options may change between sessions (pool reuse) → rebuild on next scan // Options may change between sessions (pool reuse) → rebuild on next scan

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@ -18,15 +18,15 @@
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>
<PackageReference Include="coverlet.collector" Version="6.0.4"> <PackageReference Include="coverlet.collector" Version="8.0.1">
<PrivateAssets>all</PrivateAssets> <PrivateAssets>all</PrivateAssets>
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets> <IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
</PackageReference> </PackageReference>
<PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" />
<PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.0.1" /> <PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.3.0" />
<PackageReference Include="MSTest.TestAdapter" Version="4.0.2" /> <PackageReference Include="MSTest.TestAdapter" Version="4.1.0" />
<PackageReference Include="MSTest.TestFramework" Version="4.0.2" /> <PackageReference Include="MSTest.TestFramework" Version="4.1.0" />
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>

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@ -11,10 +11,10 @@
<PackageReference Include="Microsoft.EntityFrameworkCore.SqlServer" Version="9.0.11" /> <PackageReference Include="Microsoft.EntityFrameworkCore.SqlServer" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" />
<PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.0.1" /> <PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.3.0" />
<PackageReference Include="MSTest.TestAdapter" Version="4.0.2" /> <PackageReference Include="MSTest.TestAdapter" Version="4.1.0" />
<PackageReference Include="MSTest.TestFramework" Version="4.0.2" /> <PackageReference Include="MSTest.TestFramework" Version="4.1.0" />
<PackageReference Include="coverlet.collector" Version="6.0.4"> <PackageReference Include="coverlet.collector" Version="8.0.1">
<PrivateAssets>all</PrivateAssets> <PrivateAssets>all</PrivateAssets>
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets> <IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
</PackageReference> </PackageReference>

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@ -0,0 +1,15 @@
using AyCode.Interfaces.Entities;
using AyCode.Interfaces.TimeStampInfo;
using System;
using System.Collections.Generic;
using System.Linq;
using System.Text;
using System.Threading.Tasks;
namespace AyCode.Interfaces.EntityComment
{
public interface IEntityComment
{
public string Comment { get; set; }
}
}

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@ -8,16 +8,16 @@
<Import Project="..//AyCode.Core.targets" /> <Import Project="..//AyCode.Core.targets" />
<ItemGroup> <ItemGroup>
<PackageReference Include="coverlet.collector" Version="6.0.4"> <PackageReference Include="coverlet.collector" Version="8.0.1">
<PrivateAssets>all</PrivateAssets> <PrivateAssets>all</PrivateAssets>
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets> <IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
</PackageReference> </PackageReference>
<PackageReference Include="Microsoft.AspNetCore.Cryptography.KeyDerivation" Version="9.0.11" /> <PackageReference Include="Microsoft.AspNetCore.Cryptography.KeyDerivation" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.EnvironmentVariables" Version="9.0.11" />
<PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" /> <PackageReference Include="Microsoft.Extensions.Configuration.Json" Version="9.0.11" />
<PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.0.1" /> <PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.3.0" />
<PackageReference Include="MSTest.TestAdapter" Version="4.0.2" /> <PackageReference Include="MSTest.TestAdapter" Version="4.1.0" />
<PackageReference Include="MSTest.TestFramework" Version="4.0.2" /> <PackageReference Include="MSTest.TestFramework" Version="4.1.0" />
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>

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@ -1,6 +1,7 @@
using AyCode.Core.Extensions; using AyCode.Core.Extensions;
using AyCode.Core.Helpers; using AyCode.Core.Helpers;
using AyCode.Core.Loggers; using AyCode.Core.Loggers;
using AyCode.Core.Serializers.Binaries;
using AyCode.Core.Serializers.Jsons; using AyCode.Core.Serializers.Jsons;
using AyCode.Services.SignalRs; using AyCode.Services.SignalRs;
using Microsoft.AspNetCore.SignalR; using Microsoft.AspNetCore.SignalR;
@ -14,7 +15,7 @@ public abstract class AcSignalRSendToClientService<TSignalRHub, TSignalRTags, TL
protected virtual async Task SendMessageToClient(IAcSignalRHubItemServer sendTo, int messageTag, object? content) protected virtual async Task SendMessageToClient(IAcSignalRHubItemServer sendTo, int messageTag, object? content)
{ {
var response = new SignalResponseDataMessage(messageTag, SignalResponseStatus.Success, content, AcJsonSerializerOptions.Default); var response = new SignalResponseDataMessage(messageTag, SignalResponseStatus.Success, content, AcBinarySerializerOptions.Default);
var responseBytes = response.ToBinary(); var responseBytes = response.ToBinary();
Logger.Info($"[{responseBytes.Length / 1024}kb] Server sending to client; {ConstHelper.NameByValue<TSignalRTags>(messageTag)}"); Logger.Info($"[{responseBytes.Length / 1024}kb] Server sending to client; {ConstHelper.NameByValue<TSignalRTags>(messageTag)}");

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@ -12,13 +12,13 @@
<Import Project="..//AyCode.Core.targets" /> <Import Project="..//AyCode.Core.targets" />
<ItemGroup> <ItemGroup>
<PackageReference Include="coverlet.collector" Version="6.0.4"> <PackageReference Include="coverlet.collector" Version="8.0.1">
<PrivateAssets>all</PrivateAssets> <PrivateAssets>all</PrivateAssets>
<IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets> <IncludeAssets>runtime; build; native; contentfiles; analyzers; buildtransitive</IncludeAssets>
</PackageReference> </PackageReference>
<PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.0.1" /> <PackageReference Include="Microsoft.NET.Test.Sdk" Version="18.3.0" />
<PackageReference Include="MSTest.TestAdapter" Version="4.0.2" /> <PackageReference Include="MSTest.TestAdapter" Version="4.1.0" />
<PackageReference Include="MSTest.TestFramework" Version="4.0.2" /> <PackageReference Include="MSTest.TestFramework" Version="4.1.0" />
</ItemGroup> </ItemGroup>
<ItemGroup> <ItemGroup>

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@ -137,7 +137,7 @@ public enum SignalResponseStatus : byte
/// <summary> /// <summary>
/// Unified signal response message that supports both JSON and Binary serialization. /// Unified signal response message that supports both JSON and Binary serialization.
/// JSON mode uses Brotli compression for reduced payload size. /// JSON mode uses GZip compression for reduced payload size.
/// Optimized: uses pooled buffers for decompression, zero-copy deserialization path. /// Optimized: uses pooled buffers for decompression, zero-copy deserialization path.
/// </summary> /// </summary>
public sealed class SignalResponseDataMessage : ISignalResponseMessage, IDisposable public sealed class SignalResponseDataMessage : ISignalResponseMessage, IDisposable
@ -183,28 +183,29 @@ public sealed class SignalResponseDataMessage : ISignalResponseMessage, IDisposa
if (_cachedResponseData != null) return (T)_cachedResponseData; if (_cachedResponseData != null) return (T)_cachedResponseData;
if (ResponseData == null) return default; if (ResponseData == null) return default;
if (DataSerializerType == AcSerializerType.Binary) try
{ {
try if (DataSerializerType == AcSerializerType.Binary)
{ {
// Log diagnostics if enabled // Log diagnostics if enabled
LogResponseDataDiagnostics<T>(); LogResponseDataDiagnostics<T>();
return (T)(_cachedResponseData = ResponseData.BinaryTo<T>()!); return (T)(_cachedResponseData = ResponseData.BinaryTo<T>()!);
} }
catch (Exception ex)
{
// Log detailed error diagnostics
LogResponseDataError<T>(ex);
throw;
}
}
// Decompress Brotli to pooled buffer and deserialize directly // Decompress GZip to pooled buffer and deserialize directly
EnsureDecompressed(); EnsureDecompressed();
var result = AcJsonDeserializer.Deserialize<T>(new ReadOnlySpan<byte>(_rentedDecompressedBuffer, 0, _decompressedLength));
_cachedResponseData = result; var result = AcJsonDeserializer.Deserialize<T>(new ReadOnlySpan<byte>(_rentedDecompressedBuffer, 0, _decompressedLength));
return result; _cachedResponseData = result;
return result;
}
catch (Exception ex)
{
// Log detailed error diagnostics
LogResponseDataError<T>(ex);
throw;
}
} }
private void LogResponseDataDiagnostics<T>() private void LogResponseDataDiagnostics<T>()