sapphire/src/tools/pcb_reader/main.cpp

#include <stdio.h>
#include <cstdint>
#include <string>
#include <experimental/filesystem>

#include "pcb.h"
#include "lgb.h"

#include <GameData.h>
#include <File.h>
#include <DatCat.h>
#include <ExdData.h>
#include <ExdCat.h>
#include <Exd.h>

#include <iostream>
#include <boost/algorithm/string.hpp>
#include <chrono>

using namespace std::chrono_literals;
namespace fs = std::experimental::filesystem;
struct face
{
   int32_t f1, f2, f3;
};

int parseBlockEntry( char* data, std::vector<PCB_BLOCK_ENTRY>& entries, int gOff )
{
   int offset = 0;
   bool isgroup = true;
   while( isgroup )
   {
      PCB_BLOCK_ENTRY block_entry;
      memcpy( &block_entry.header, data + offset, sizeof( block_entry.header ) );
      isgroup = block_entry.header.type == 0x30;

      //printf( " BLOCKHEADER_%X: type: %i, group_size: %i\n", gOff + offset, block_entry.header.type, block_entry.header.group_size );

      if( isgroup )
      {
         parseBlockEntry( data + offset + 0x30, entries, gOff + offset );
         offset += block_entry.header.group_size;
      }
      else
      {
         /*   printf( "\tnum_v16: %i, num_indices: %i, num_vertices: %i\n\n",
                    block_entry.header.num_v16, block_entry.header.num_indices, block_entry.header.num_vertices );*/
         int doffset = sizeof( block_entry.header ) + offset;
         uint16_t block_size = sizeof( block_entry.header ) +
            block_entry.header.num_vertices * 3 * 4 +
            block_entry.header.num_v16 * 6 +
            block_entry.header.num_indices * 6;

         if( block_entry.header.num_vertices != 0 )
         {
            block_entry.data.vertices.resize( block_entry.header.num_vertices );

            int32_t size_vertexbuffer = block_entry.header.num_vertices * 3;
            memcpy( &block_entry.data.vertices[0], data + doffset, size_vertexbuffer * 4 );
            doffset += size_vertexbuffer * 4;
         }
         if( block_entry.header.num_v16 != 0 )
         {
            block_entry.data.vertices_i16.resize( block_entry.header.num_v16 );
            int32_t size_unknownbuffer = block_entry.header.num_v16 * 6;
            memcpy( &block_entry.data.vertices_i16[0], data + doffset, size_unknownbuffer );
            doffset += block_entry.header.num_v16 * 6;
         }
         if( block_entry.header.num_indices != 0 )
         {
            block_entry.data.indices.resize( block_entry.header.num_indices );
            int32_t size_indexbuffer = block_entry.header.num_indices * 12;
            memcpy( &block_entry.data.indices[0], data + doffset, size_indexbuffer );
            doffset += size_indexbuffer;
         }
         entries.push_back( block_entry );
      }
   }

   return 0;
}

std::string zoneNameToPath( const std::string& name )
{
   char teri = name[0];
   char region = name[1];
   char type = name[2];
   char zone = name[3];
   static std::map<char, std::string> teriMap
   {
      { 'r', "roc" },
      { 'w', "wil" },
      { 'l', "lak" },
      { 'o', "ocn" },
      { 'f', "fst" },
      { 'a', "air" },
      { 's', "sea" },
      { 'z', "zon" }
   };

   static std::map<char, std::string> typeMap
   {
      { 'f', "fld" },
      { 't', "twn" },
      { 'd', "dun" },
      { 'b', "bah" },
      { 'i', "ind" },
      { 'e', "evt" },
   };
   std::string ret;
   const auto& teriRet = teriMap[teri];
   const auto& typeRet = typeMap[type];
   ret += teriRet + "_";
   ret += teri;
   ret += region;
   ret += "/" + typeRet + "/" + name;
   return ret;
}

int main( int argc, char* argv[] )
{
   auto startTime = std::chrono::system_clock::now();

   std::string gamePath = "C:\\SquareEnix\\FINAL FANTASY XIV - A Realm Reborn\\game\\sqpack\\ffxiv";
   std::string zoneName = "r1f1";

   if( argc > 1 )
   {
      gamePath = argv[1];
      if( argc > 2 )
      {
         zoneName = argv[2];
      }
   }
   const auto& zonePath = zoneNameToPath( zoneName );

   try
   {
      xiv::dat::GameData data1( gamePath );
      xiv::exd::ExdData eData( data1 );

      const xiv::dat::Cat& test = data1.get_category( "bg" );

      auto &test_file = data1.get_file( "bg/ffxiv/" + zonePath + "/level/bg.lgb" );
      auto &section = test_file->access_data_sections().at( 0 );
      int32_t list_offset = *(uint32_t*)&section[0x18];
      int32_t size = *(uint32_t*)&section[4];

      std::vector<std::string> stringList;

      auto &test_file1 = data1.get_file( "bg/ffxiv/" + zonePath + "/collision/list.pcb" );
      auto &section1 = test_file1->access_data_sections().at( 0 );
      std::string path = "bg/ffxiv/" + zonePath + "/collision/";
      int offset1 = 0x20;
      for( ; ; )
      {

         uint16_t trId = *(uint16_t*)&section1[offset1];

         char someString[200];
         sprintf( someString, "%str%04d.pcb", path.c_str(), trId );
         stringList.push_back( std::string( someString ) );
         //std::cout << someString << "\n";
         offset1 += 0x20;

         if( offset1 >= section1.size() )
         {
            break;
         }
      }

      LGB_FILE bgLgb( &section[0] );

      int max_index = 0;

      std::vector<std::string> vertices;
      std::vector<std::string> indices;

      char *data;
      int counter = 0;

      // dont bother if we cant write to a file
      auto fp_out = fopen( (zoneName + ".obj").c_str(), "w" );
      if( fp_out )
      {
         fprintf( fp_out, "\n" );
         fclose( fp_out );
      }
      else
      {
         std::string errorMessage( "Cannot create " + zoneName + ".obj\n" +
            " Check no programs have a handle to file and run as admin.\n" );
         std::cout << errorMessage;
         throw std::exception( errorMessage.c_str() );
         return 0;
      }

      fp_out = fopen( (zoneName + ".obj").c_str(), "ab+" );
      if( fp_out )
      {
         std::map<std::string, PCB_FILE> pcbFiles;
         std::map<std::string, uint32_t> objCount;
         auto loadPcbFile = [&]( const std::string& fileName )
         {
            try
            {
               //std::cout << fileName << " ";
               auto file = data1.get_file( fileName );
               auto sections = file->get_data_sections();
               auto dataSection = &sections.at( 0 )[0];

               //std::cout << sections.size() << "\n";

               uint32_t offset = 0;
               uint32_t groupCount = 0;
               PCB_FILE pcb_file;
               memcpy( &pcb_file.header, &dataSection[0], sizeof( pcb_file.header ) );
               offset += sizeof( pcb_file.header );

               bool isgroup = true;
               while( isgroup )
               {
                  PCB_BLOCK_ENTRY block_entry;
                  memcpy( &block_entry.header, &dataSection[0] + offset, sizeof( block_entry.header ) );
                  isgroup = block_entry.header.type == 0x30;

                  //printf( "BLOCKHEADER_%X: type: %i, group_size: %i\n", offset, block_entry.header.type, block_entry.header.group_size );
                  //
                  if( isgroup )
                  {
                     parseBlockEntry( &dataSection[0] + offset + 0x30, pcb_file.entries, offset );
                     offset += block_entry.header.group_size;
                  }
                  else
                  {
                     parseBlockEntry( &dataSection[0] + offset, pcb_file.entries, offset );
                  }
                  groupCount++;
               }
               pcbFiles.insert( std::make_pair( fileName, pcb_file ) );
            }
            catch( std::exception& e )
            {
               std::cout << "Unable to load collision mesh " << fileName << "\n\tError:\n\t" << e.what() << "\n";
            }
         };
         auto pushVerts = [&]( const PCB_FILE& pcb_file, const std::string& name, const vec3* scale = nullptr, const vec3* rotation = nullptr, const vec3* translation = nullptr )
         {
            std::string name2 = (name + "_" + std::to_string( objCount[name]++ ));
            fprintf( fp_out, "o %s\n", name2.c_str() );
            uint32_t groupCount = 0;
            for( auto &entry : pcb_file.entries )
            {
               float x_base = abs( float( entry.header.x1 - entry.header.x ) );
               float y_base = abs( float( entry.header.y1 - entry.header.y ) );
               float z_base = abs( float( entry.header.z1 - entry.header.z ) );

               auto makeTranslation = [&]( vec3& v )
               {
                  if( scale )
                  {
                     v.x *= scale->x;
                     v.y *= scale->y;
                     v.z *= scale->z;

                     v = v * matrix4::rotateX( rotation->x );
                     v = v * matrix4::rotateY( rotation->y );
                     v = v * matrix4::rotateZ( rotation->z );

                     v.x += translation->x;
                     v.y += translation->y;
                     v.z += translation->z;
                  }

               };

               for( auto &vertex : entry.data.vertices )
               {
                  vec3 v( vertex.x, vertex.y, vertex.z );
                  makeTranslation( v );
                  fprintf( fp_out, "v %f %f %f\n", v.x, v.y, v.z );
               }

               for( const auto &link : entry.data.vertices_i16 )
               {
                  vec3 v( float( link.x ) / 0xFFFF, float( link.y ) / 0xFFFF, float( link.z ) / 0xFFFF );

                  v.x = v.x * x_base + entry.header.x;
                  v.y = v.y * y_base + entry.header.y;
                  v.z = v.z * z_base + entry.header.z;

                  makeTranslation( v );
                  fprintf( fp_out, "v %f %f %f\n", v.x, v.y, v.z );
               }

               //fprintf( fp_out, "g %s_", (name2 + "_" + std::to_string( groupCount++ )).c_str() );
               for( const auto &index : entry.data.indices )
               {
                  //if( index.index[0] != 0 || index.index[1] != 0 || index.index[2] != 0 )
                  {
                     fprintf( fp_out, "f %i %i %i\n",
                        index.index[0] + max_index + 1,
                        index.index[1] + max_index + 1,
                        index.index[2] + max_index + 1 );
                  }
//                  std::cout << std::to_string( index.unknown[0] )<< " " << std::to_string( index.unknown[1] )<< " " << std::to_string( index.unknown[2]) << std::endl;
               }
               max_index += entry.data.vertices.size() + entry.data.vertices_i16.size();
            }
         };

         for( const auto& fileName : stringList )
         {
            loadPcbFile( fileName );
            pushVerts( pcbFiles[fileName], fileName );
         }
         std::cout << "Writing obj file " << "\n";
         std::cout << bgLgb.groups.size() << " groups " << "\n";
         uint32_t totalGroups = 0;
         uint32_t totalGroupEntries = 0;
         for( const auto& group : bgLgb.groups )
         {
            //std::cout << "\t" << group.name << " Size " << group.header.entryCount << "\n";
            totalGroups++;
            for( const auto pEntry : group.entries )
            {
               auto pBgParts = dynamic_cast<LGB_BGPARTS_ENTRY*>(pEntry.get());

               auto& fileName = pBgParts->collisionFileName;
               if( pBgParts )
               {
                  if ( fileName.empty() )
                     fileName = pBgParts->modelFileName;
                  boost::replace_all( fileName, "bgparts", "collision" );
                  boost::replace_all( fileName, ".mdl", ".pcb" );
               }

               if( !pBgParts || fileName.empty() )
                  continue;

               {
                  const auto& it = pcbFiles.find( fileName );
                  if( it == pcbFiles.end() )
                  {
                     loadPcbFile( fileName );
                     //std::cout << "\t\tLoaded PCB File " << pBgParts->collisionFileName << "\n";
                  }
               }
               const auto& it = pcbFiles.find( fileName );
               if( it != pcbFiles.end() )
               {
                  totalGroupEntries++;

                  //std::cout << pBgParts->collisionFileName << "\n";

                  const auto* scale = &pBgParts->header.scale;
                  const auto* rotation = &pBgParts->header.rotation;
                  const auto* translation = &pBgParts->header.translation;

                  const auto& pcb_file = it->second;
                  pushVerts( pcb_file, fileName, scale, rotation, translation );
               }
            }
         }
         std::cout << "\n\nLoaded " << pcbFiles.size() << " PCB Files \n";
         std::cout << "Total Groups " << totalGroups << " Total entries " << totalGroupEntries << "\n";
      }
      std::cout << "Finished exporting " << zoneName << " in " <<
         std::chrono::duration_cast<std::chrono::seconds>(std::chrono::system_clock::now() - startTime).count() << " seconds\n";
   }
   catch( std::exception& e )
   {
      std::cout << e.what() << std::endl;
   }
   return 0;
}