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fix: improve shell analysis accuracy with depth window and voting mechanism

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- Add depth window approach instead of single extreme value selection
- Implement voting mechanism: components need visibility in 8%+ directions
- Multi-level confidence based on visibility ratio (25%/8% thresholds)
- Calculate adaptive depth window: max(0.2% diagonal, 15% median thickness)
- Add top-K fallback to ensure minimum visible components
- Fix compilation errors: add unordered_map header, fix C++17 syntax

This reduces over-aggressive deletion from 90% to more reasonable levels by
properly identifying partially visible components in second/third layers.

🤖 Generated with [Claude Code](https://claude.ai/code)

Co-Authored-By: Claude <noreply@anthropic.com>
This commit is contained in:
sladro 2025-09-18 20:16:34 +08:00
parent 1003178e17
commit 0bf81ee8d4
40 changed files with 259 additions and 144 deletions
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358
CreoManager.cpp
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@ -30,8 +30,10 @@
#include <vector>
#include <limits>
#include <map>
#include <unordered_map>
#include <string>
#include <set>
#include <unordered_set>
#include <cstdlib>
#include <algorithm>
#include <functional>
@ -1539,6 +1541,72 @@ CreoManager::ShellAnalysisResult CreoManager::AnalyzeShellFeaturesEnhanced(const
// Execute multi-directional extreme value projection algorithm
std::unordered_set<int> outerComponentIds = PerformMultiDirectionalProjectionAnalysis(assembly);
// Also need visibility votes for confidence mapping
// Re-run the voting analysis to get detailed visibility scores
std::unordered_map<int, int> visibilityVotes;
const int numDirections = 96;
std::vector<Vector3D> directions = SampleDirections(numDirections);
// Collect all components for visibility analysis
std::vector<ComponentItem> allComponents = CollectAllComponents(assembly);
AABB globalAABB;
for (const ComponentItem& comp : allComponents) {
globalAABB.expand(comp.worldAABB.minPoint);
globalAABB.expand(comp.worldAABB.maxPoint);
}
// Calculate visibility votes for each component
for (const Vector3D& direction : directions) {
struct ProjectionData {
double support;
double thickness;
int featureId;
};
std::vector<ProjectionData> projections;
for (const ComponentItem& comp : allComponents) {
double support = CalculateProjectionSupport(comp.worldAABB, direction);
Vector3D minSupport, maxSupport;
minSupport.x = (direction.x < 0) ? comp.worldAABB.maxPoint.x : comp.worldAABB.minPoint.x;
minSupport.y = (direction.y < 0) ? comp.worldAABB.maxPoint.y : comp.worldAABB.minPoint.y;
minSupport.z = (direction.z < 0) ? comp.worldAABB.maxPoint.z : comp.worldAABB.minPoint.z;
maxSupport.x = (direction.x >= 0) ? comp.worldAABB.maxPoint.x : comp.worldAABB.minPoint.x;
maxSupport.y = (direction.y >= 0) ? comp.worldAABB.maxPoint.y : comp.worldAABB.minPoint.y;
maxSupport.z = (direction.z >= 0) ? comp.worldAABB.maxPoint.z : comp.worldAABB.minPoint.z;
double thickness = std::abs((maxSupport - minSupport).dot(direction));
projections.push_back({support, thickness, comp.featureId});
}
std::sort(projections.begin(), projections.end(),
[](const ProjectionData& a, const ProjectionData& b) {
return a.support > b.support;
});
if (!projections.empty()) {
double bestSupport = projections.front().support;
std::vector<double> thicknesses;
for (const auto& p : projections) thicknesses.push_back(p.thickness);
std::nth_element(thicknesses.begin(), thicknesses.begin() + thicknesses.size() / 2, thicknesses.end());
double medianThickness = thicknesses[thicknesses.size() / 2];
double assemblyDiagonal = globalAABB.getDiagonalLength();
double absoluteWindow = std::max(1e-6, 0.002 * assemblyDiagonal);
double relativeWindow = 0.15 * medianThickness;
double depthWindow = std::max(absoluteWindow, relativeWindow);
int topK = std::min<int>(12, std::max<int>(3, (int)std::sqrt(allComponents.size())));
int rank = 0;
for (const auto& proj : projections) {
if ((proj.support >= bestSupport - depthWindow) || (rank < topK)) {
visibilityVotes[proj.featureId]++;
rank++;
} else {
break;
}
}
}
}
// Get all components using the same method as CollectAllComponents for ID consistency
wfcWAssembly_ptr wAssembly = wfcWAssembly::cast(assembly);
if (!wAssembly) {
@ -1555,30 +1623,7 @@ CreoManager::ShellAnalysisResult CreoManager::AnalyzeShellFeaturesEnhanced(const
int total_components = componentPaths->getarraysize();
result.total_features_analyzed = total_components;
// Build feature ID map first (same approach as CollectAllComponents)
std::map<std::string, int> modelNameToFeatureId;
try {
pfcFeatures_ptr features = assembly->ListFeaturesByType(xfalse, pfcFEATTYPE_COMPONENT);
if (features) {
for (int j = 0; j < features->getarraysize(); j++) {
pfcFeature_ptr feature = features->get(j);
if (!feature) continue;
pfcComponentFeat_ptr compFeat = pfcComponentFeat::cast(feature);
if (!compFeat) continue;
pfcModelDescriptor_ptr modelDesc = compFeat->GetModelDescr();
if (!modelDesc) continue;
std::string modelName = XStringToString(modelDesc->GetFileName());
if (!modelName.empty()) {
modelNameToFeatureId[modelName] = feature->GetId();
}
}
}
} catch (...) {
// Continue with fallback approach if feature listing fails
}
// No need for feature ID map - we'll use component IDs directly from paths
// Build analysis result from projection analysis
for (int i = 0; i < total_components; i++) {
@ -1605,18 +1650,15 @@ CreoManager::ShellAnalysisResult CreoManager::AnalyzeShellFeaturesEnhanced(const
comp_name = "COMPONENT_" + std::to_string(i + 1);
}
// Get stable feature ID from map or use fallback
// Get stable feature ID from component path - use the leaf component ID
int stableFeatureId = -1;
if (modelNameToFeatureId.find(comp_name) != modelNameToFeatureId.end()) {
stableFeatureId = modelNameToFeatureId[comp_name];
xintsequence_ptr componentIds = wPath->GetComponentIds();
if (componentIds && componentIds->getarraysize() > 0) {
// Use the last ID in the path which represents the leaf component
stableFeatureId = componentIds->get(componentIds->getarraysize() - 1);
} else {
// Fallback: use component path IDs
xintsequence_ptr componentIds = wPath->GetComponentIds();
if (componentIds && componentIds->getarraysize() > 0) {
stableFeatureId = componentIds->get(componentIds->getarraysize() - 1);
} else {
stableFeatureId = i; // Last resort: use index
}
// Should not happen, but use index as last resort
stableFeatureId = i;
}
// Create analysis item
@ -1625,23 +1667,40 @@ CreoManager::ShellAnalysisResult CreoManager::AnalyzeShellFeaturesEnhanced(const
item.type = "COMPONENT";
item.feature_id = stableFeatureId; // Use stable feature ID
// Determine if this component is on outer surface based on projection analysis
bool is_outer_component = (outerComponentIds.find(item.feature_id) != outerComponentIds.end());
// Calculate visibility ratio for this component
double visibilityRatio = 0.0;
auto votesIter = visibilityVotes.find(item.feature_id);
if (votesIter != visibilityVotes.end()) {
visibilityRatio = (double)votesIter->second / numDirections;
}
if (is_outer_component) {
// Outer surface component - low deletion confidence
item.confidence = 15.0;
// Determine confidence based on visibility ratio
if (visibilityRatio >= 0.25) {
// Highly visible component - clearly on outer surface
item.confidence = 0.1; // Very low deletion confidence
item.recommendation = "KEEP";
item.reason = "Component on assembly outer surface (multi-directional projection analysis)";
item.reason = "Component highly visible from multiple directions (visibility: " +
std::to_string((int)(visibilityRatio * 100)) + "%)";
result.shell_features_count++;
} else if (visibilityRatio >= 0.08) {
// Partially visible component - likely on outer surface or important structure
item.confidence = 0.4; // Medium deletion confidence
item.recommendation = "REVIEW";
item.reason = "Component partially visible (visibility: " +
std::to_string((int)(visibilityRatio * 100)) + "%)";
result.shell_features_count++;
} else {
// Internal component - high deletion confidence
item.confidence = 85.0;
// Internal component - mostly not visible
item.confidence = 0.85; // High deletion confidence
item.recommendation = "DELETE";
item.reason = "Internal component not visible from any direction (multi-directional projection analysis)";
item.reason = "Internal component with minimal visibility (visibility: " +
std::to_string((int)(visibilityRatio * 100)) + "%)";
result.internal_features_count++;
}
// Check if it was identified as outer component by the main algorithm
bool is_outer_component = (outerComponentIds.find(item.feature_id) != outerComponentIds.end());
// Apply user preferences
if (request.preserve_external_surfaces && is_outer_component) {
item.confidence = 0.0; // Force keep
@ -1667,6 +1726,58 @@ CreoManager::ShellAnalysisResult CreoManager::AnalyzeShellFeaturesEnhanced(const
return a.confidence > b.confidence;
});
// Convert features to categorized deletion lists
for (const auto& item : result.features) {
FeatureDeletion deletion;
deletion.id = item.feature_id;
deletion.name = item.name;
deletion.type = item.type;
deletion.reason = item.reason;
deletion.confidence = item.confidence;
deletion.volume_reduction = 0.0; // Not calculated in projection analysis
deletion.part_file = ""; // Component name is already in 'name'
deletion.part_path = ""; // Not available in current analysis
deletion.component_type = "COMPONENT";
if (item.confidence >= 0.8) {
// Safe deletion - high confidence internal components
result.safe_deletions.push_back(deletion);
} else if (item.confidence >= 0.5) {
// Suggested deletion - medium confidence components
result.suggested_deletions.push_back(deletion);
} else {
// Preserve - low confidence or outer surface components
result.preserve_list.push_back(deletion);
}
}
// Update statistics fields
result.analysis_parameters.total_features = result.total_features_analyzed;
result.analysis_parameters.deletable_features = result.safe_deletions.size() + result.suggested_deletions.size();
result.analysis_parameters.preserved_features = result.preserve_list.size();
result.analysis_parameters.surface_count = result.total_features_analyzed; // All components analyzed
result.analysis_parameters.shell_surfaces = result.shell_features_count; // Outer surface components
result.analysis_parameters.internal_surfaces = result.internal_features_count; // Internal components
// Calculate estimated reduction (simplified for projection analysis)
if (result.total_features_analyzed > 0) {
double safe_reduction_pct = (double)result.safe_deletions.size() / result.total_features_analyzed * 100.0;
double suggested_reduction_pct = (double)result.suggested_deletions.size() / result.total_features_analyzed * 100.0;
std::ostringstream volume_str, filesize_str, performance_str;
volume_str << std::fixed << std::setprecision(1) << (safe_reduction_pct + suggested_reduction_pct * 0.5) << "%";
filesize_str << std::fixed << std::setprecision(1) << (safe_reduction_pct * 0.7 + suggested_reduction_pct * 0.3) << "%";
performance_str << std::fixed << std::setprecision(0) << (safe_reduction_pct * 1.5 + suggested_reduction_pct * 0.8) << "%";
result.estimated_reduction.volume_reduction = volume_str.str();
result.estimated_reduction.file_size_reduction = filesize_str.str();
result.estimated_reduction.performance_improvement = performance_str.str();
} else {
result.estimated_reduction.volume_reduction = "0%";
result.estimated_reduction.file_size_reduction = "0%";
result.estimated_reduction.performance_improvement = "0%";
}
// Calculate statistics
result.deletion_percentage = (result.total_features_analyzed > 0) ?
(double(result.total_deletable) / result.total_features_analyzed * 100.0) : 0.0;
@ -2459,35 +2570,7 @@ std::vector<CreoManager::ComponentItem> CreoManager::CollectAllComponents(pfcAss
if (!assembly) return components;
try {
// Step 1: Build a map of all component features and their IDs
std::map<std::string, int> modelNameToFeatureId;
std::map<std::string, pfcComponentFeat_ptr> modelNameToCompFeat;
try {
pfcFeatures_ptr features = assembly->ListFeaturesByType(xfalse, pfcFEATTYPE_COMPONENT);
if (features) {
for (int i = 0; i < features->getarraysize(); i++) {
pfcFeature_ptr feature = features->get(i);
if (!feature) continue;
pfcComponentFeat_ptr compFeat = pfcComponentFeat::cast(feature);
if (!compFeat) continue;
// Get model descriptor to get the model name
pfcModelDescriptor_ptr modelDesc = compFeat->GetModelDescr();
if (!modelDesc) continue;
std::string modelName = XStringToString(modelDesc->GetFileName());
if (!modelName.empty()) {
int featureId = feature->GetId();
modelNameToFeatureId[modelName] = featureId;
modelNameToCompFeat[modelName] = compFeat;
}
}
}
} catch (...) {
// If we can't get features, fall back to using component IDs
}
// We don't need feature mapping - will use component IDs directly from paths
// Step 2: Use wfcWAssembly to get component paths with transforms
wfcWAssembly_ptr wAssembly = wfcWAssembly::cast(assembly);
@ -2521,22 +2604,15 @@ std::vector<CreoManager::ComponentItem> CreoManager::CollectAllComponents(pfcAss
compName = "COMPONENT_" + std::to_string(i + 1);
}
// Get stable feature ID from our map, or use component path ID as fallback
// Get stable feature ID from component path - use the leaf component ID
int stableFeatureId = -1;
pfcComponentFeat_ptr compFeat = nullptr;
if (modelNameToFeatureId.find(compName) != modelNameToFeatureId.end()) {
// Found in our feature map - use the stable feature ID
stableFeatureId = modelNameToFeatureId[compName];
compFeat = modelNameToCompFeat[compName];
xintsequence_ptr componentIds = wPath->GetComponentIds();
if (componentIds && componentIds->getarraysize() > 0) {
// Use the last ID in the path which represents the leaf component
stableFeatureId = componentIds->get(componentIds->getarraysize() - 1);
} else {
// Fallback: use the last component ID from the path
xintsequence_ptr componentIds = wPath->GetComponentIds();
if (componentIds && componentIds->getarraysize() > 0) {
stableFeatureId = componentIds->get(componentIds->getarraysize() - 1);
} else {
stableFeatureId = i; // Last resort: use index
}
// Should not happen, but use index as last resort
stableFeatureId = i;
}
// Get local AABB
@ -2557,11 +2633,11 @@ std::vector<CreoManager::ComponentItem> CreoManager::CollectAllComponents(pfcAss
// Create component item with complete information
ComponentItem item;
item.component = compFeat; // May be nullptr if not found in map
item.component = nullptr; // We don't have pfcComponentFeat directly
item.solid = compSolid;
item.path = nullptr; // We have wfcWComponentPath, different type
item.worldAABB = worldAABB;
item.featureId = stableFeatureId; // Use stable feature ID when available
item.featureId = stableFeatureId; // Use stable feature ID from component path
item.name = compName;
components.push_back(item);
@ -2581,14 +2657,14 @@ std::vector<CreoManager::ComponentItem> CreoManager::CollectAllComponents(pfcAss
return components;
}
// Main multi-directional extreme value projection analysis
// Main multi-directional extreme value projection analysis with depth window and voting
std::unordered_set<int> CreoManager::PerformMultiDirectionalProjectionAnalysis(pfcAssembly_ptr assembly) {
std::unordered_set<int> outerComponentIds;
if (!assembly) return outerComponentIds;
try {
// Step 1: Collect all components recursively
// Step 1: Collect all components
std::vector<ComponentItem> components = CollectAllComponents(assembly);
if (components.empty()) return outerComponentIds;
@ -2599,40 +2675,100 @@ std::unordered_set<int> CreoManager::PerformMultiDirectionalProjectionAnalysis(p
globalAABB.expand(comp.worldAABB.maxPoint);
}
// Step 3: Calculate tolerance based on assembly size
double assemblyDiagonal = globalAABB.getDiagonalLength();
double tolerance = std::max(1e-6, assemblyDiagonal * 0.001); // 0.1% of assembly diagonal for better precision
// Step 3: Sample directions (96 directions for good coverage)
const int numDirections = 96;
std::vector<Vector3D> directions = SampleDirections(numDirections);
// Step 4: Sample directions (96 directions for good coverage)
std::vector<Vector3D> directions = SampleDirections(96);
// Voting map: component ID -> number of directions where it's visible
std::unordered_map<int, int> visibilityVotes;
visibilityVotes.reserve(components.size());
// Step 5: For each direction, find extreme value components
// Step 4: For each direction, determine visible components using depth window
for (const Vector3D& direction : directions) {
double maxProjection = -std::numeric_limits<double>::infinity();
std::vector<int> candidateIds;
// Structure to hold projection data
struct ProjectionData {
double support; // Projection support value
double thickness; // Component thickness in this direction
int featureId;
};
// Find maximum projection in this direction
std::vector<ProjectionData> projections;
projections.reserve(components.size());
// Calculate projections and thickness for all components
for (const ComponentItem& comp : components) {
double projection = CalculateProjectionSupport(comp.worldAABB, direction);
if (projection > maxProjection) {
maxProjection = projection;
candidateIds.clear();
candidateIds.push_back(comp.featureId);
} else if (abs(projection - maxProjection) <= tolerance) {
// Within tolerance of maximum - also consider as frontmost
candidateIds.push_back(comp.featureId);
}
double support = CalculateProjectionSupport(comp.worldAABB, direction);
// Calculate thickness as component extent in this direction
Vector3D minSupport, maxSupport;
minSupport.x = (direction.x < 0) ? comp.worldAABB.maxPoint.x : comp.worldAABB.minPoint.x;
minSupport.y = (direction.y < 0) ? comp.worldAABB.maxPoint.y : comp.worldAABB.minPoint.y;
minSupport.z = (direction.z < 0) ? comp.worldAABB.maxPoint.z : comp.worldAABB.minPoint.z;
maxSupport.x = (direction.x >= 0) ? comp.worldAABB.maxPoint.x : comp.worldAABB.minPoint.x;
maxSupport.y = (direction.y >= 0) ? comp.worldAABB.maxPoint.y : comp.worldAABB.minPoint.y;
maxSupport.z = (direction.z >= 0) ? comp.worldAABB.maxPoint.z : comp.worldAABB.minPoint.z;
double thickness = std::abs((maxSupport - minSupport).dot(direction));
projections.push_back({support, thickness, comp.featureId});
}
// Add all frontmost components in this direction to outer surface set
for (int id : candidateIds) {
outerComponentIds.insert(id);
// Sort by support value (highest first)
std::sort(projections.begin(), projections.end(),
[](const ProjectionData& a, const ProjectionData& b) {
return a.support > b.support;
});
if (projections.empty()) continue;
double bestSupport = projections.front().support;
// Calculate median thickness for adaptive window
std::vector<double> thicknesses;
thicknesses.reserve(projections.size());
for (const auto& p : projections) {
thicknesses.push_back(p.thickness);
}
std::nth_element(thicknesses.begin(),
thicknesses.begin() + thicknesses.size() / 2,
thicknesses.end());
double medianThickness = thicknesses[thicknesses.size() / 2];
// Adaptive depth window (max of absolute and relative)
double assemblyDiagonal = globalAABB.getDiagonalLength();
double absoluteWindow = std::max(1e-6, 0.002 * assemblyDiagonal); // 0.2% of diagonal
double relativeWindow = 0.15 * medianThickness; // 15% of median thickness
double depthWindow = std::max(absoluteWindow, relativeWindow);
// Top-K fallback to ensure minimum visible components
int topK = std::min<int>(12, std::max<int>(3, (int)std::sqrt(components.size())));
// Mark visible components (within window OR in top-K)
int rank = 0;
for (const auto& proj : projections) {
if ((proj.support >= bestSupport - depthWindow) || (rank < topK)) {
visibilityVotes[proj.featureId]++;
rank++;
} else {
break; // Components further back are not visible
}
}
}
// Step 5: Determine outer components based on voting threshold
double minVisibilityRatio = 0.08; // At least 8% of directions
int minVotes = std::max(3, (int)(minVisibilityRatio * numDirections));
for (const auto& kvp : visibilityVotes) {
if (kvp.second >= minVotes) {
outerComponentIds.insert(kvp.first);
}
}
// Step 6: Apply safety check - ensure at least some components are marked as outer
if (outerComponentIds.empty() && !components.empty()) {
// Fallback: mark components on assembly boundary as outer
double assemblyDiagonal = globalAABB.getDiagonalLength();
for (const ComponentItem& comp : components) {
// Check if component AABB touches assembly boundary
double boundaryTolerance = assemblyDiagonal * 0.005; // 0.5% tolerance for tighter boundary detection

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@ -277,18 +277,18 @@ public:
};
struct ShellAnalysisParameters {
bool preserve_external_surfaces;
double min_wall_thickness;
double confidence_threshold;
int total_features;
int deletable_features;
int preserved_features;
bool assembly_analysis;
std::string analysis_strategy = "bbox_surface_ownership_feature_analysis_optimized";
int surface_count;
int shell_surfaces;
int internal_surfaces;
int shell_feature_whitelist;
bool preserve_external_surfaces = true;
double min_wall_thickness = 1.0;
double confidence_threshold = 0.7;
int total_features = 0;
int deletable_features = 0;
int preserved_features = 0;
bool assembly_analysis = false;
std::string analysis_strategy = "multi_directional_projection_analysis";
int surface_count = 0;
int shell_surfaces = 0;
int internal_surfaces = 0;
int shell_feature_whitelist = 0;
HierarchyAnalysisInfo hierarchy_analysis;
};

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@ -1,18 +0,0 @@
C:\Users\sladr\source\repos\MFCCreoDll\AuthManager.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\AuthManager.obj
C:\Users\sladr\source\repos\MFCCreoDll\CreoManager.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\CreoManager.obj
C:\Users\sladr\source\repos\MFCCreoDll\GeometryAnalyzer.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\GeometryAnalyzer.obj
C:\Users\sladr\source\repos\MFCCreoDll\HierarchyStatisticsAnalyzer.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\HierarchyStatisticsAnalyzer.obj
C:\Users\sladr\source\repos\MFCCreoDll\HttpRouter.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\HttpRouter.obj
C:\Users\sladr\source\repos\MFCCreoDll\HttpServer.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\HttpServer.obj
C:\Users\sladr\source\repos\MFCCreoDll\JsonHelper.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\JsonHelper.obj
C:\Users\sladr\source\repos\MFCCreoDll\Logger.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\Logger.obj
C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\MFCCreoDll.obj
C:\Users\sladr\source\repos\MFCCreoDll\ModelAnalyzer.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\ModelAnalyzer.obj
C:\Users\sladr\source\repos\MFCCreoDll\ModelSearchEngine.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\ModelSearchEngine.obj
C:\Users\sladr\source\repos\MFCCreoDll\ModelSearchHandler.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\ModelSearchHandler.obj
C:\Users\sladr\source\repos\MFCCreoDll\PathDeleteManager.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\PathDeleteManager.obj
C:\Users\sladr\source\repos\MFCCreoDll\pch.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\pch.obj
C:\Users\sladr\source\repos\MFCCreoDll\ServerManager.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\ServerManager.obj
C:\Users\sladr\source\repos\MFCCreoDll\ShellExportHandler.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\ShellExportHandler.obj
C:\Users\sladr\source\repos\MFCCreoDll\ShrinkwrapManager.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\ShrinkwrapManager.obj
C:\Users\sladr\source\repos\MFCCreoDll\WebSocketServer.cpp;C:\Users\sladr\source\repos\MFCCreoDll\MFCCreoDll\x64\Debug\WebSocketServer.obj

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C:\Users\sladr\source\repos\MFCCreoDll\x64\Debug\MFCCreoDll.lib
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