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mirror of https://github.com/OpenRCT2/OpenRCT2 synced 2026-01-15 19:13:07 +01:00
Files
OpenRCT2/src/openrct2/object/ObjectManager.cpp
Duncan 8f59fe91cb BannerSceneryEntry Refactor (#14810)
* Refactor BannerSceneryEntry to enforce type

* Remove old comment

* Fix incorrect renameing
2021-06-03 21:43:30 +01:00

861 lines
30 KiB
C++

/*****************************************************************************
* Copyright (c) 2014-2020 OpenRCT2 developers
*
* For a complete list of all authors, please refer to contributors.md
* Interested in contributing? Visit https://github.com/OpenRCT2/OpenRCT2
*
* OpenRCT2 is licensed under the GNU General Public License version 3.
*****************************************************************************/
#include "ObjectManager.h"
#include "../Context.h"
#include "../ParkImporter.h"
#include "../core/Console.hpp"
#include "../core/Memory.hpp"
#include "../localisation/StringIds.h"
#include "../util/Util.h"
#include "FootpathItemObject.h"
#include "LargeSceneryObject.h"
#include "Object.h"
#include "ObjectList.h"
#include "ObjectRepository.h"
#include "RideObject.h"
#include "SceneryGroupObject.h"
#include "SmallSceneryObject.h"
#include "WallObject.h"
#include <algorithm>
#include <array>
#include <memory>
#include <mutex>
#include <thread>
#include <unordered_set>
class ObjectManager final : public IObjectManager
{
private:
IObjectRepository& _objectRepository;
std::vector<std::unique_ptr<Object>> _loadedObjects;
std::array<std::vector<ObjectEntryIndex>, RIDE_TYPE_COUNT> _rideTypeToObjectMap;
// Used to return a safe empty vector back from GetAllRideEntries, can be removed when std::span is available
std::vector<ObjectEntryIndex> _nullRideTypeEntries;
public:
explicit ObjectManager(IObjectRepository& objectRepository)
: _objectRepository(objectRepository)
{
_loadedObjects.resize(OBJECT_ENTRY_COUNT);
UpdateSceneryGroupIndexes();
ResetTypeToRideEntryIndexMap();
}
~ObjectManager() override
{
UnloadAll();
}
Object* GetLoadedObject(size_t index) override
{
if (index >= _loadedObjects.size())
{
return nullptr;
}
return _loadedObjects[index].get();
}
Object* GetLoadedObject(ObjectType objectType, size_t index) override
{
if (index >= static_cast<size_t>(object_entry_group_counts[EnumValue(objectType)]))
{
#ifdef DEBUG
log_warning("Object index %u exceeds maximum for type %d.", index, objectType);
#endif
return nullptr;
}
auto objectIndex = GetIndexFromTypeEntry(objectType, index);
return GetLoadedObject(objectIndex);
}
Object* GetLoadedObject(const ObjectEntryDescriptor& entry) override
{
Object* loadedObject = nullptr;
const ObjectRepositoryItem* ori = _objectRepository.FindObject(entry);
if (ori != nullptr)
{
loadedObject = ori->LoadedObject;
}
return loadedObject;
}
ObjectEntryIndex GetLoadedObjectEntryIndex(const Object* object) override
{
ObjectEntryIndex result = OBJECT_ENTRY_INDEX_NULL;
size_t index = GetLoadedObjectIndex(object);
if (index != SIZE_MAX)
{
get_type_entry_index(index, nullptr, &result);
}
return result;
}
Object* LoadObject(std::string_view identifier) override
{
const ObjectRepositoryItem* ori = _objectRepository.FindObject(identifier);
return RepositoryItemToObject(ori);
}
Object* LoadObject(const rct_object_entry* entry) override
{
const ObjectRepositoryItem* ori = _objectRepository.FindObject(entry);
return RepositoryItemToObject(ori);
}
void LoadObjects(const rct_object_entry* entries, size_t count) override
{
// Find all the required objects
auto requiredObjects = GetRequiredObjects(entries, count);
// Load the required objects
size_t numNewLoadedObjects = 0;
auto loadedObjects = LoadObjects(requiredObjects, &numNewLoadedObjects);
SetNewLoadedObjectList(std::move(loadedObjects));
LoadDefaultObjects();
UpdateSceneryGroupIndexes();
ResetTypeToRideEntryIndexMap();
log_verbose("%u / %u new objects loaded", numNewLoadedObjects, requiredObjects.size());
}
void UnloadObjects(const std::vector<rct_object_entry>& entries) override
{
// TODO there are two performance issues here:
// - FindObject for every entry which is a dictionary lookup
// - GetLoadedObjectIndex for every entry which enumerates _loadedList
size_t numObjectsUnloaded = 0;
for (const auto& entry : entries)
{
const ObjectRepositoryItem* ori = _objectRepository.FindObject(&entry);
if (ori != nullptr)
{
Object* loadedObject = ori->LoadedObject;
if (loadedObject != nullptr)
{
UnloadObject(loadedObject);
numObjectsUnloaded++;
}
}
}
if (numObjectsUnloaded > 0)
{
UpdateSceneryGroupIndexes();
ResetTypeToRideEntryIndexMap();
}
}
void UnloadAll() override
{
for (auto& object : _loadedObjects)
{
UnloadObject(object.get());
}
UpdateSceneryGroupIndexes();
ResetTypeToRideEntryIndexMap();
}
void ResetObjects() override
{
for (auto& loadedObject : _loadedObjects)
{
if (loadedObject != nullptr)
{
loadedObject->Unload();
loadedObject->Load();
}
}
UpdateSceneryGroupIndexes();
ResetTypeToRideEntryIndexMap();
}
std::vector<const ObjectRepositoryItem*> GetPackableObjects() override
{
std::vector<const ObjectRepositoryItem*> objects;
size_t numObjects = _objectRepository.GetNumObjects();
for (size_t i = 0; i < numObjects; i++)
{
const ObjectRepositoryItem* item = &_objectRepository.GetObjects()[i];
if (item->LoadedObject != nullptr && IsObjectCustom(item) && item->LoadedObject->GetLegacyData() != nullptr
&& !item->LoadedObject->IsJsonObject())
{
objects.push_back(item);
}
}
return objects;
}
void LoadDefaultObjects() override
{
// We currently will load new object types here that apply to all
// loaded RCT1 and RCT2 save files.
// Surfaces
LoadObject("rct2.surface.grass");
LoadObject("rct2.surface.sand");
LoadObject("rct2.surface.dirt");
LoadObject("rct2.surface.rock");
LoadObject("rct2.surface.martian");
LoadObject("rct2.surface.chequerboard");
LoadObject("rct2.surface.grassclumps");
LoadObject("rct2.surface.ice");
LoadObject("rct2.surface.gridred");
LoadObject("rct2.surface.gridyellow");
LoadObject("rct2.surface.gridpurple");
LoadObject("rct2.surface.gridgreen");
LoadObject("rct2.surface.sandred");
LoadObject("rct2.surface.sandbrown");
LoadObject("rct1.aa.surface.roofred");
LoadObject("rct1.ll.surface.roofgrey");
LoadObject("rct1.ll.surface.rust");
LoadObject("rct1.ll.surface.wood");
// Edges
LoadObject("rct2.edge.rock");
LoadObject("rct2.edge.woodred");
LoadObject("rct2.edge.woodblack");
LoadObject("rct2.edge.ice");
LoadObject("rct1.edge.brick");
LoadObject("rct1.edge.iron");
LoadObject("rct1.aa.edge.grey");
LoadObject("rct1.aa.edge.yellow");
LoadObject("rct1.aa.edge.red");
LoadObject("rct1.ll.edge.purple");
LoadObject("rct1.ll.edge.green");
LoadObject("rct1.ll.edge.stonebrown");
LoadObject("rct1.ll.edge.stonegrey");
LoadObject("rct1.ll.edge.skyscrapera");
LoadObject("rct1.ll.edge.skyscraperb");
// Stations
LoadObject("rct2.station.plain");
LoadObject("rct2.station.wooden");
LoadObject("rct2.station.canvastent");
LoadObject("rct2.station.castlegrey");
LoadObject("rct2.station.castlebrown");
LoadObject("rct2.station.jungle");
LoadObject("rct2.station.log");
LoadObject("rct2.station.classical");
LoadObject("rct2.station.abstract");
LoadObject("rct2.station.snow");
LoadObject("rct2.station.pagoda");
LoadObject("rct2.station.space");
LoadObject("openrct2.station.noentrance");
// Music
auto baseIndex = GetIndexFromTypeEntry(ObjectType::Music, 0);
LoadObject(baseIndex + MUSIC_STYLE_DODGEMS_BEAT, "rct2.music.dodgems");
LoadObject(baseIndex + MUSIC_STYLE_FAIRGROUND_ORGAN, "rct2.music.fairground");
LoadObject(baseIndex + MUSIC_STYLE_ROMAN_FANFARE, "rct2.music.roman");
LoadObject(baseIndex + MUSIC_STYLE_ORIENTAL, "rct2.music.oriental");
LoadObject(baseIndex + MUSIC_STYLE_MARTIAN, "rct2.music.martian");
LoadObject(baseIndex + MUSIC_STYLE_JUNGLE_DRUMS, "rct2.music.jungle");
LoadObject(baseIndex + MUSIC_STYLE_EGYPTIAN, "rct2.music.egyptian");
LoadObject(baseIndex + MUSIC_STYLE_TOYLAND, "rct2.music.toyland");
LoadObject(baseIndex + MUSIC_STYLE_SPACE, "rct2.music.space");
LoadObject(baseIndex + MUSIC_STYLE_HORROR, "rct2.music.horror");
LoadObject(baseIndex + MUSIC_STYLE_TECHNO, "rct2.music.techno");
LoadObject(baseIndex + MUSIC_STYLE_GENTLE, "rct2.music.gentle");
LoadObject(baseIndex + MUSIC_STYLE_SUMMER, "rct2.music.summer");
LoadObject(baseIndex + MUSIC_STYLE_WATER, "rct2.music.water");
LoadObject(baseIndex + MUSIC_STYLE_WILD_WEST, "rct2.music.wildwest");
LoadObject(baseIndex + MUSIC_STYLE_JURASSIC, "rct2.music.jurassic");
LoadObject(baseIndex + MUSIC_STYLE_ROCK, "rct2.music.rock1");
LoadObject(baseIndex + MUSIC_STYLE_RAGTIME, "rct2.music.ragtime");
LoadObject(baseIndex + MUSIC_STYLE_FANTASY, "rct2.music.fantasy");
LoadObject(baseIndex + MUSIC_STYLE_ROCK_STYLE_2, "rct2.music.rock2");
LoadObject(baseIndex + MUSIC_STYLE_ICE, "rct2.music.ice");
LoadObject(baseIndex + MUSIC_STYLE_SNOW, "rct2.music.snow");
LoadObject(baseIndex + MUSIC_STYLE_CUSTOM_MUSIC_1, "rct2.music.custom1");
LoadObject(baseIndex + MUSIC_STYLE_CUSTOM_MUSIC_2, "rct2.music.custom2");
LoadObject(baseIndex + MUSIC_STYLE_MEDIEVAL, "rct2.music.medieval");
LoadObject(baseIndex + MUSIC_STYLE_URBAN, "rct2.music.urban");
LoadObject(baseIndex + MUSIC_STYLE_ORGAN, "rct2.music.organ");
LoadObject(baseIndex + MUSIC_STYLE_MECHANICAL, "rct2.music.mechanical");
LoadObject(baseIndex + MUSIC_STYLE_MODERN, "rct2.music.modern");
LoadObject(baseIndex + MUSIC_STYLE_PIRATES, "rct2.music.pirate");
LoadObject(baseIndex + MUSIC_STYLE_ROCK_STYLE_3, "rct2.music.rock3");
LoadObject(baseIndex + MUSIC_STYLE_CANDY_STYLE, "rct2.music.candy");
}
static rct_string_id GetObjectSourceGameString(const ObjectSourceGame sourceGame)
{
switch (sourceGame)
{
case ObjectSourceGame::RCT1:
return STR_SCENARIO_CATEGORY_RCT1;
case ObjectSourceGame::AddedAttractions:
return STR_SCENARIO_CATEGORY_RCT1_AA;
case ObjectSourceGame::LoopyLandscapes:
return STR_SCENARIO_CATEGORY_RCT1_LL;
case ObjectSourceGame::RCT2:
return STR_ROLLERCOASTER_TYCOON_2_DROPDOWN;
case ObjectSourceGame::WackyWorlds:
return STR_OBJECT_FILTER_WW;
case ObjectSourceGame::TimeTwister:
return STR_OBJECT_FILTER_TT;
case ObjectSourceGame::OpenRCT2Official:
return STR_OBJECT_FILTER_OPENRCT2_OFFICIAL;
default:
return STR_OBJECT_FILTER_CUSTOM;
}
}
const std::vector<ObjectEntryIndex>& GetAllRideEntries(uint8_t rideType) override
{
if (rideType >= RIDE_TYPE_COUNT)
{
// Return an empty vector
return _nullRideTypeEntries;
}
return _rideTypeToObjectMap[rideType];
}
private:
Object* LoadObject(int32_t slot, std::string_view identifier)
{
const ObjectRepositoryItem* ori = _objectRepository.FindObject(identifier);
return RepositoryItemToObject(ori, slot);
}
Object* RepositoryItemToObject(const ObjectRepositoryItem* ori, std::optional<int32_t> slot = {})
{
Object* loadedObject = nullptr;
if (ori != nullptr)
{
loadedObject = ori->LoadedObject;
if (loadedObject == nullptr)
{
ObjectType objectType = ori->ObjectEntry.GetType();
if (slot)
{
if (_loadedObjects.size() > static_cast<size_t>(*slot) && _loadedObjects[*slot] != nullptr)
{
// Slot already taken
return nullptr;
}
}
else
{
slot = FindSpareSlot(objectType);
}
if (slot)
{
auto object = GetOrLoadObject(ori);
if (object != nullptr)
{
if (_loadedObjects.size() <= static_cast<size_t>(*slot))
{
_loadedObjects.resize(*slot + 1);
}
loadedObject = object.get();
_loadedObjects[*slot] = std::move(object);
UpdateSceneryGroupIndexes();
ResetTypeToRideEntryIndexMap();
}
}
}
}
return loadedObject;
}
std::optional<int32_t> FindSpareSlot(ObjectType objectType)
{
size_t firstIndex = GetIndexFromTypeEntry(objectType, 0);
size_t endIndex = firstIndex + object_entry_group_counts[EnumValue(objectType)];
for (size_t i = firstIndex; i < endIndex; i++)
{
if (_loadedObjects.size() <= i)
{
_loadedObjects.resize(i + 1);
return static_cast<int32_t>(i);
}
else if (_loadedObjects[i] == nullptr)
{
return static_cast<int32_t>(i);
}
}
return {};
}
size_t GetLoadedObjectIndex(const Object* object)
{
Guard::ArgumentNotNull(object, GUARD_LINE);
auto result = std::numeric_limits<size_t>().max();
auto it = std::find_if(
_loadedObjects.begin(), _loadedObjects.end(), [object](auto& obj) { return obj.get() == object; });
if (it != _loadedObjects.end())
{
result = std::distance(_loadedObjects.begin(), it);
}
return result;
}
void SetNewLoadedObjectList(std::vector<std::unique_ptr<Object>>&& newLoadedObjects)
{
if (newLoadedObjects.empty())
{
UnloadAll();
}
else
{
UnloadObjectsExcept(newLoadedObjects);
}
_loadedObjects = std::move(newLoadedObjects);
}
void UnloadObject(Object* object)
{
if (object != nullptr)
{
object->Unload();
// TODO try to prevent doing a repository search
const ObjectRepositoryItem* ori = _objectRepository.FindObject(object->GetObjectEntry());
if (ori != nullptr)
{
_objectRepository.UnregisterLoadedObject(ori, object);
}
// Because it's possible to have the same loaded object for multiple
// slots, we have to make sure find and set all of them to nullptr
for (auto& obj : _loadedObjects)
{
if (obj.get() == object)
{
obj = nullptr;
}
}
}
}
void UnloadObjectsExcept(const std::vector<std::unique_ptr<Object>>& newLoadedObjects)
{
// Build a hash set for quick checking
auto exceptSet = std::unordered_set<Object*>();
for (auto& object : newLoadedObjects)
{
if (object != nullptr)
{
exceptSet.insert(object.get());
}
}
// Unload objects that are not in the hash set
size_t totalObjectsLoaded = 0;
size_t numObjectsUnloaded = 0;
for (auto& object : _loadedObjects)
{
if (object != nullptr)
{
totalObjectsLoaded++;
if (exceptSet.find(object.get()) == exceptSet.end())
{
UnloadObject(object.get());
numObjectsUnloaded++;
}
}
}
log_verbose("%u / %u objects unloaded", numObjectsUnloaded, totalObjectsLoaded);
}
void UpdateSceneryGroupIndexes()
{
for (auto& loadedObject : _loadedObjects)
{
if (loadedObject != nullptr)
{
rct_scenery_entry* sceneryEntry;
switch (loadedObject->GetObjectType())
{
case ObjectType::SmallScenery:
{
sceneryEntry = static_cast<rct_scenery_entry*>(loadedObject->GetLegacyData());
sceneryEntry->small_scenery.scenery_tab_id = GetPrimarySceneryGroupEntryIndex(loadedObject.get());
break;
}
case ObjectType::LargeScenery:
{
sceneryEntry = static_cast<rct_scenery_entry*>(loadedObject->GetLegacyData());
sceneryEntry->large_scenery.scenery_tab_id = GetPrimarySceneryGroupEntryIndex(loadedObject.get());
break;
}
case ObjectType::Walls:
{
auto* wallEntry = static_cast<WallSceneryEntry*>(loadedObject->GetLegacyData());
wallEntry->scenery_tab_id = GetPrimarySceneryGroupEntryIndex(loadedObject.get());
break;
}
case ObjectType::Banners:
{
auto* bannerEntry = static_cast<BannerSceneryEntry*>(loadedObject->GetLegacyData());
bannerEntry->scenery_tab_id = GetPrimarySceneryGroupEntryIndex(loadedObject.get());
break;
}
case ObjectType::PathBits:
{
auto* pathBitEntry = static_cast<PathBitEntry*>(loadedObject->GetLegacyData());
pathBitEntry->scenery_tab_id = GetPrimarySceneryGroupEntryIndex(loadedObject.get());
break;
}
case ObjectType::SceneryGroup:
{
auto sgObject = dynamic_cast<SceneryGroupObject*>(loadedObject.get());
sgObject->UpdateEntryIndexes();
break;
}
default:
// This switch only handles scenery ObjectTypes.
break;
}
}
}
// HACK Scenery window will lose its tabs after changing the scenery group indexing
// for now just close it, but it will be better to later tell it to invalidate the tabs
window_close_by_class(WC_SCENERY);
}
ObjectEntryIndex GetPrimarySceneryGroupEntryIndex(Object* loadedObject)
{
auto sceneryObject = dynamic_cast<SceneryObject*>(loadedObject);
const auto& primarySGEntry = sceneryObject->GetPrimarySceneryGroup();
Object* sgObject = GetLoadedObject(primarySGEntry);
auto entryIndex = OBJECT_ENTRY_INDEX_NULL;
if (sgObject != nullptr)
{
entryIndex = GetLoadedObjectEntryIndex(sgObject);
}
return entryIndex;
}
rct_object_entry* DuplicateObjectEntry(const rct_object_entry* original)
{
rct_object_entry* duplicate = Memory::Allocate<rct_object_entry>(sizeof(rct_object_entry));
duplicate->checksum = original->checksum;
strncpy(duplicate->name, original->name, 8);
duplicate->flags = original->flags;
return duplicate;
}
std::vector<rct_object_entry> GetInvalidObjects(const rct_object_entry* entries) override
{
std::vector<rct_object_entry> invalidEntries;
invalidEntries.reserve(OBJECT_ENTRY_COUNT);
for (int32_t i = 0; i < OBJECT_ENTRY_COUNT; i++)
{
auto entry = entries[i];
const ObjectRepositoryItem* ori = nullptr;
if (object_entry_is_empty(&entry))
{
entry = {};
continue;
}
ori = _objectRepository.FindObject(&entry);
if (ori == nullptr)
{
if (entry.GetType() != ObjectType::ScenarioText)
{
invalidEntries.push_back(entry);
ReportMissingObject(&entry);
}
else
{
entry = {};
continue;
}
}
else
{
auto loadedObject = ori->LoadedObject;
if (loadedObject == nullptr)
{
auto object = _objectRepository.LoadObject(ori);
if (object == nullptr)
{
invalidEntries.push_back(entry);
ReportObjectLoadProblem(&entry);
}
}
}
}
return invalidEntries;
}
std::vector<const ObjectRepositoryItem*> GetRequiredObjects(const rct_object_entry* entries, size_t count)
{
std::vector<const ObjectRepositoryItem*> requiredObjects;
std::vector<rct_object_entry> missingObjects;
for (size_t i = 0; i < count; i++)
{
const rct_object_entry* entry = &entries[i];
const ObjectRepositoryItem* ori = nullptr;
if (!object_entry_is_empty(entry))
{
ori = _objectRepository.FindObject(entry);
if (ori == nullptr && entry->GetType() != ObjectType::ScenarioText)
{
missingObjects.push_back(*entry);
ReportMissingObject(entry);
}
}
requiredObjects.push_back(ori);
}
if (!missingObjects.empty())
{
throw ObjectLoadException(std::move(missingObjects));
}
return requiredObjects;
}
template<typename T, typename TFunc> static void ParallelFor(const std::vector<T>& items, TFunc func)
{
auto partitions = std::thread::hardware_concurrency();
auto partitionSize = (items.size() + (partitions - 1)) / partitions;
std::vector<std::thread> threads;
for (size_t n = 0; n < partitions; n++)
{
auto begin = n * partitionSize;
auto end = std::min(items.size(), begin + partitionSize);
threads.emplace_back(
[func](size_t pbegin, size_t pend) {
for (size_t i = pbegin; i < pend; i++)
{
func(i);
}
},
begin, end);
}
for (auto& t : threads)
{
t.join();
}
}
std::vector<std::unique_ptr<Object>> LoadObjects(
std::vector<const ObjectRepositoryItem*>& requiredObjects, size_t* outNewObjectsLoaded)
{
std::vector<std::unique_ptr<Object>> objects;
std::vector<Object*> loadedObjects;
std::vector<rct_object_entry> badObjects;
objects.resize(OBJECT_ENTRY_COUNT);
loadedObjects.reserve(OBJECT_ENTRY_COUNT);
// Read objects
std::mutex commonMutex;
ParallelFor(requiredObjects, [this, &commonMutex, requiredObjects, &objects, &badObjects, &loadedObjects](size_t i) {
auto requiredObject = requiredObjects[i];
std::unique_ptr<Object> object;
if (requiredObject != nullptr)
{
auto loadedObject = requiredObject->LoadedObject;
if (loadedObject == nullptr)
{
// Object requires to be loaded, if the object successfully loads it will register it
// as a loaded object otherwise placed into the badObjects list.
object = _objectRepository.LoadObject(requiredObject);
std::lock_guard<std::mutex> guard(commonMutex);
if (object == nullptr)
{
badObjects.push_back(requiredObject->ObjectEntry);
ReportObjectLoadProblem(&requiredObject->ObjectEntry);
}
else
{
loadedObjects.push_back(object.get());
// Connect the ori to the registered object
_objectRepository.RegisterLoadedObject(requiredObject, object.get());
}
}
else
{
// The object is already loaded, given that the new list will be used as the next loaded object list,
// we can move the element out safely. This is required as the resulting list must contain all loaded
// objects and not just the newly loaded ones.
std::lock_guard<std::mutex> guard(commonMutex);
auto it = std::find_if(_loadedObjects.begin(), _loadedObjects.end(), [loadedObject](const auto& obj) {
return obj.get() == loadedObject;
});
if (it != _loadedObjects.end())
{
object = std::move(*it);
}
}
}
objects[i] = std::move(object);
});
// Load objects
for (auto obj : loadedObjects)
{
obj->Load();
}
if (!badObjects.empty())
{
// Unload all the new objects we loaded
for (auto object : loadedObjects)
{
UnloadObject(object);
}
throw ObjectLoadException(std::move(badObjects));
}
if (outNewObjectsLoaded != nullptr)
{
*outNewObjectsLoaded = loadedObjects.size();
}
return objects;
}
std::unique_ptr<Object> GetOrLoadObject(const ObjectRepositoryItem* ori)
{
std::unique_ptr<Object> object;
auto loadedObject = ori->LoadedObject;
if (loadedObject == nullptr)
{
// Try to load object
object = _objectRepository.LoadObject(ori);
if (object != nullptr)
{
object->Load();
// Connect the ori to the registered object
_objectRepository.RegisterLoadedObject(ori, object.get());
}
}
return object;
}
void ResetTypeToRideEntryIndexMap()
{
// Clear all ride objects
for (auto& v : _rideTypeToObjectMap)
{
v.clear();
}
// Build object lists
auto maxRideObjects = static_cast<size_t>(object_entry_group_counts[EnumValue(ObjectType::Ride)]);
for (size_t i = 0; i < maxRideObjects; i++)
{
auto rideObject = static_cast<RideObject*>(GetLoadedObject(ObjectType::Ride, i));
if (rideObject != nullptr)
{
const auto entry = static_cast<rct_ride_entry*>(rideObject->GetLegacyData());
if (entry != nullptr)
{
for (auto rideType : entry->ride_type)
{
if (rideType < _rideTypeToObjectMap.size())
{
auto& v = _rideTypeToObjectMap[rideType];
v.push_back(static_cast<ObjectEntryIndex>(i));
}
}
}
}
}
}
static void ReportMissingObject(const rct_object_entry* entry)
{
utf8 objName[DAT_NAME_LENGTH + 1] = { 0 };
std::copy_n(entry->name, DAT_NAME_LENGTH, objName);
Console::Error::WriteLine("[%s] Object not found.", objName);
}
void ReportObjectLoadProblem(const rct_object_entry* entry)
{
utf8 objName[DAT_NAME_LENGTH + 1] = { 0 };
std::copy_n(entry->name, DAT_NAME_LENGTH, objName);
Console::Error::WriteLine("[%s] Object could not be loaded.", objName);
}
static int32_t GetIndexFromTypeEntry(ObjectType objectType, size_t entryIndex)
{
int32_t result = 0;
for (int32_t i = 0; i < EnumValue(objectType); i++)
{
result += object_entry_group_counts[i];
}
result += static_cast<int32_t>(entryIndex);
return result;
}
};
std::unique_ptr<IObjectManager> CreateObjectManager(IObjectRepository& objectRepository)
{
return std::make_unique<ObjectManager>(objectRepository);
}
Object* object_manager_get_loaded_object_by_index(size_t index)
{
auto& objectManager = OpenRCT2::GetContext()->GetObjectManager();
Object* loadedObject = objectManager.GetLoadedObject(index);
return loadedObject;
}
Object* object_manager_get_loaded_object(const ObjectEntryDescriptor& entry)
{
auto& objectManager = OpenRCT2::GetContext()->GetObjectManager();
Object* loadedObject = objectManager.GetLoadedObject(entry);
return loadedObject;
}
ObjectEntryIndex object_manager_get_loaded_object_entry_index(const Object* loadedObject)
{
auto& objectManager = OpenRCT2::GetContext()->GetObjectManager();
auto entryIndex = objectManager.GetLoadedObjectEntryIndex(loadedObject);
return entryIndex;
}
ObjectEntryIndex object_manager_get_loaded_object_entry_index(const ObjectEntryDescriptor& entry)
{
return object_manager_get_loaded_object_entry_index(object_manager_get_loaded_object(entry));
}
Object* object_manager_load_object(const rct_object_entry* entry)
{
auto& objectManager = OpenRCT2::GetContext()->GetObjectManager();
Object* loadedObject = objectManager.LoadObject(entry);
return loadedObject;
}
void object_manager_unload_objects(const std::vector<rct_object_entry>& entries)
{
auto& objectManager = OpenRCT2::GetContext()->GetObjectManager();
objectManager.UnloadObjects(entries);
}
void object_manager_unload_all_objects()
{
auto& objectManager = OpenRCT2::GetContext()->GetObjectManager();
objectManager.UnloadAll();
}
rct_string_id object_manager_get_source_game_string(const ObjectSourceGame sourceGame)
{
return ObjectManager::GetObjectSourceGameString(sourceGame);
}