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path: root/src/itemdef.cpp
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/*
Minetest
Copyright (C) 2010-2013 celeron55, Perttu Ahola <celeron55@gmail.com>
Copyright (C) 2013 Kahrl <kahrl@gmx.net>

This program is free software; you can redistribute it and/or modify
it under the terms of the GNU Lesser General Public License as published by
the Free Software Foundation; either version 2.1 of the License, or
(at your option) any later version.

This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
GNU Lesser General Public License for more details.

You should have received a copy of the GNU Lesser General Public License along
with this program; if not, write to the Free Software Foundation, Inc.,
51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
*/

#include "itemdef.h"

#include "nodedef.h"
#include "tool.h"
#include "inventory.h"
#ifndef SERVER
#include "client/mapblock_mesh.h"
#include "client/mesh.h"
#include "client/wieldmesh.h"
#include "client/tile.h"
#include "client/client.h"
#endif
#include "log.h"
#include "settings.h"
#include "util/serialize.h"
#include "util/container.h"
#include "util/thread.h"
#include <map>
#include <set>

#ifdef __ANDROID__
#include <GLES/gl.h>
#endif

/*
	ItemDefinition
*/
ItemDefinition::ItemDefinition()
{
	resetInitial();
}

ItemDefinition::ItemDefinition(const ItemDefinition &def)
{
	resetInitial();
	*this = def;
}

ItemDefinition& ItemDefinition::operator=(const ItemDefinition &def)
{
	if(this == &def)
		return *this;

	reset();

	type = def.type;
	name = def.name;
	description = def.description;
	inventory_image = def.inventory_image;
	inventory_overlay = def.inventory_overlay;
	wield_image = def.wield_image;
	wield_overlay = def.wield_overlay;
	wield_scale = def.wield_scale;
	stack_max = def.stack_max;
	usable = def.usable;
	liquids_pointable = def.liquids_pointable;
	if(def.tool_capabilities)
	{
		tool_capabilities = new ToolCapabilities(
				*def.tool_capabilities);
	}
	groups = def.groups;
	node_placement_prediction = def.node_placement_prediction;
	sound_place = def.sound_place;
	sound_place_failed = def.sound_place_failed;
	range = def.range;
	palette_image = def.palette_image;
	color = def.color;
	return *this;
}

ItemDefinition::~ItemDefinition()
{
	reset();
}

void ItemDefinition::resetInitial()
{
	// Initialize pointers to NULL so reset() does not delete undefined pointers
	tool_capabilities = NULL;
	reset();
}

void ItemDefinition::reset()
{
	type = ITEM_NONE;
	name = "";
	description = "";
	inventory_image = "";
	inventory_overlay = "";
	wield_image = "";
	wield_overlay = "";
	palette_image = "";
	color = video::SColor(0xFFFFFFFF);
	wield_scale = v3f(1.0, 1.0, 1.0);
	stack_max = 99;
	usable = false;
	liquids_pointable = false;
	delete tool_capabilities;
	tool_capabilities = NULL;
	groups.clear();
	sound_place = SimpleSoundSpec();
	sound_place_failed = SimpleSoundSpec();
	range = -1;

	node_placement_prediction = "";
}

void ItemDefinition::serialize(std::ostream &os, u16 protocol_version) const
{
	// protocol_version >= 37
	u8 version = 6;
	writeU8(os, version);
	writeU8(os, type);
	os << serializeString(name);
	os << serializeString(description);
	os << serializeString(inventory_image);
	os << serializeString(wield_image);
	writeV3F32(os, wield_scale);
	writeS16(os, stack_max);
	writeU8(os, usable);
	writeU8(os, liquids_pointable);

	std::string tool_capabilities_s;
	if (tool_capabilities) {
		std::ostringstream tmp_os(std::ios::binary);
		tool_capabilities->serialize(tmp_os, protocol_version);
		tool_capabilities_s = tmp_os.str();
	}
	os << serializeString(tool_capabilities_s);

	writeU16(os, groups.size());
	for (const auto &group : groups) {
		os << serializeString(group.first);
		writeS16(os, group.second);
	}

	os << serializeString(node_placement_prediction);

	// Version from ContentFeatures::serialize to keep in sync
	sound_place.serialize(os, CONTENTFEATURES_VERSION);
	sound_place_failed.serialize(os, CONTENTFEATURES_VERSION);

	writeF32(os, range);
	os << serializeString(palette_image);
	writeARGB8(os, color);
	os << serializeString(inventory_overlay);
	os << serializeString(wield_overlay);
}

void ItemDefinition::deSerialize(std::istream &is)
{
	// Reset everything
	reset();

	// Deserialize
	int version = readU8(is);
	if (version < 6)
		throw SerializationError("unsupported ItemDefinition version");

	type = (enum ItemType)readU8(is);
	name = deSerializeString(is);
	description = deSerializeString(is);
	inventory_image = deSerializeString(is);
	wield_image = deSerializeString(is);
	wield_scale = readV3F32(is);
	stack_max = readS16(is);
	usable = readU8(is);
	liquids_pointable = readU8(is);

	std::string tool_capabilities_s = deSerializeString(is);
	if (!tool_capabilities_s.empty()) {
		std::istringstream tmp_is(tool_capabilities_s, std::ios::binary);
		tool_capabilities = new ToolCapabilities;
		tool_capabilities->deSerialize(tmp_is);
	}

	groups.clear();
	u32 groups_size = readU16(is);
	for(u32 i=0; i<groups_size; i++){
		std::string name = deSerializeString(is);
		int value = readS16(is);
		groups[name] = value;
	}

	node_placement_prediction = deSerializeString(is);

	// Version from ContentFeatures::serialize to keep in sync
	sound_place.deSerialize(is, CONTENTFEATURES_VERSION);
	sound_place_failed.deSerialize(is, CONTENTFEATURES_VERSION);

	range = readF32(is);
	palette_image = deSerializeString(is);
	color = readARGB8(is);
	inventory_overlay = deSerializeString(is);
	wield_overlay = deSerializeString(is);

	// If you add anything here, insert it primarily inside the try-catch
	// block to not need to increase the version.
	//try {
	//} catch(SerializationError &e) {};
}


/*
	CItemDefManager
*/

// SUGG: Support chains of aliases?

class CItemDefManager: public IWritableItemDefManager
{
#ifndef SERVER
	struct ClientCached
	{
		video::ITexture *inventory_texture;
		ItemMesh wield_mesh;
		Palette *palette;

		ClientCached():
			inventory_texture(NULL),
			palette(NULL)
		{}
	};
#endif

public:
	CItemDefManager()
	{

#ifndef SERVER
		m_main_thread = std::this_thread::get_id();
#endif
		clear();
	}
	virtual ~CItemDefManager()
	{
#ifndef SERVER
		const std::vector<ClientCached*> &values = m_clientcached.getValues();
		for (ClientCached *cc : values) {
			if (cc->wield_mesh.mesh)
				cc->wield_mesh.mesh->drop();
			delete cc;
		}

#endif
		for (auto &item_definition : m_item_definitions) {
			delete item_definition.second;
		}
		m_item_definitions.clear();
	}
	virtual const ItemDefinition& get(const std::string &name_) const
	{
		// Convert name according to possible alias
		std::string name = getAlias(name_);
		// Get the definition
		std::map<std::string, ItemDefinition*>::const_iterator i;
		i = m_item_definitions.find(name);
		if(i == m_item_definitions.end())
			i = m_item_definitions.find("unknown");
		assert(i != m_item_definitions.end());
		return *(i->second);
	}
	virtual const std::string &getAlias(const std::string &name) const
	{
		StringMap::const_iterator it = m_aliases.find(name);
		if (it != m_aliases.end())
			return it->second;
		return name;
	}
	virtual void getAll(std::set<std::string> &result) const
	{
		result.clear();
		for (const auto &item_definition : m_item_definitions) {
			result.insert(item_definition.first);
		}

		for (const auto &alias : m_aliases) {
			result.insert(alias.first);
		}
	}
	virtual bool isKnown(const std::string &name_) const
	{
		// Convert name according to possible alias
		std::string name = getAlias(name_);
		// Get the definition
		std::map<std::string, ItemDefinition*>::const_iterator i;
		return m_item_definitions.find(name) != m_item_definitions.end();
	}
#ifndef SERVER
public:
	ClientCached* createClientCachedDirect(const std::string &name,
			Client *client) const
	{
		infostream<<"Lazily creating item texture and mesh for \""
				<<name<<"\""<<std::endl;

		// This is not thread-safe
		sanity_check(std::this_thread::get_id() == m_main_thread);

		// Skip if already in cache
		ClientCached *cc = NULL;
		m_clientcached.get(name, &cc);
		if(cc)
			return cc;

		ITextureSource *tsrc = client->getTextureSource();
		const ItemDefinition &def = get(name);

		// Create new ClientCached
		cc = new ClientCached();

		// Create an inventory texture
		cc->inventory_texture = NULL;
		if (!def.inventory_image.empty())
			cc->inventory_texture = tsrc->getTexture(def.inventory_image);

		ItemStack item = ItemStack();
		item.name = def.name;

		getItemMesh(client, item, &(cc->wield_mesh));

		cc->palette = tsrc->getPalette(def.palette_image);

		// Put in cache
		m_clientcached.set(name, cc);

		return cc;
	}
	ClientCached* getClientCached(const std::string &name,
			Client *client) const
	{
		ClientCached *cc = NULL;
		m_clientcached.get(name, &cc);
		if (cc)
			return cc;

		if (std::this_thread::get_id() == m_main_thread) {
			return createClientCachedDirect(name, client);
		}

		// We're gonna ask the result to be put into here
		static ResultQueue<std::string, ClientCached*, u8, u8> result_queue;

		// Throw a request in
		m_get_clientcached_queue.add(name, 0, 0, &result_queue);
		try {
			while(true) {
				// Wait result for a second
				GetResult<std::string, ClientCached*, u8, u8>
					result = result_queue.pop_front(1000);

				if (result.key == name) {
					return result.item;
				}
			}
		} catch(ItemNotFoundException &e) {
			errorstream << "Waiting for clientcached " << name
				<< " timed out." << std::endl;
			return &m_dummy_clientcached;
		}
	}
	// Get item inventory texture
	virtual video::ITexture* getInventoryTexture(const std::string &name,
			Client *client) const
	{
		ClientCached *cc = getClientCached(name, client);
		if(!cc)
			return NULL;
		return cc->inventory_texture;
	}
	// Get item wield mesh
	virtual ItemMesh* getWieldMesh(const std::string &name,
			Client *client) const
	{
		ClientCached *cc = getClientCached(name, client);
		if(!cc)
			return NULL;
		return &(cc->wield_mesh);
	}

	// Get item palette
	virtual Palette* getPalette(const std::string &name,
			Client *client) const
	{
		ClientCached *cc = getClientCached(name, client);
		if(!cc)
			return NULL;
		return cc->palette;
	}

	virtual video::SColor getItemstackColor(const ItemStack &stack,
		Client *client) const
	{
		// Look for direct color definition
		const std::string &colorstring = stack.metadata.getString("color", 0);
		video::SColor directcolor;
		if (!colorstring.empty() && parseColorString(colorstring, directcolor, true))
			return directcolor;
		// See if there is a palette
		Palette *palette = getPalette(stack.name, client);
		const std::string &index = stack.metadata.getString("palette_index", 0);
		if (palette && !index.empty())
			return (*palette)[mystoi(index, 0, 255)];
		// Fallback color
		return get(stack.name).color;
	}
#endif
	void clear()
	{
		for(std::map<std::string, ItemDefinition*>::const_iterator
				i = m_item_definitions.begin();
				i != m_item_definitions.end(); ++i)
		{
			delete i->second;
		}
		m_item_definitions.clear();
		m_aliases.clear();

		// Add the four builtin items:
		//   "" is the hand
		//   "unknown" is returned whenever an undefined item
		//     is accessed (is also the unknown node)
		//   "air" is the air node
		//   "ignore" is the ignore node

		ItemDefinition* hand_def = new ItemDefinition;
		hand_def->name = "";
		hand_def->wield_image = "wieldhand.png";
		hand_def->tool_capabilities = new ToolCapabilities;
		m_item_definitions.insert(std::make_pair("", hand_def));

		ItemDefinition* unknown_def = new ItemDefinition;
		unknown_def->type = ITEM_NODE;
		unknown_def->name = "unknown";
		m_item_definitions.insert(std::make_pair("unknown", unknown_def));

		ItemDefinition* air_def = new ItemDefinition;
		air_def->type = ITEM_NODE;
		air_def->name = "air";
		m_item_definitions.insert(std::make_pair("air", air_def));

		ItemDefinition* ignore_def = new ItemDefinition;
		ignore_def->type = ITEM_NODE;
		ignore_def->name = "ignore";
		m_item_definitions.insert(std::make_pair("ignore", ignore_def));
	}
	virtual void registerItem(const ItemDefinition &def)
	{
		verbosestream<<"ItemDefManager: registering \""<<def.name<<"\""<<std::endl;
		// Ensure that the "" item (the hand) always has ToolCapabilities
		if (def.name.empty())
			FATAL_ERROR_IF(!def.tool_capabilities, "Hand does not have ToolCapabilities");

		if(m_item_definitions.count(def.name) == 0)
			m_item_definitions[def.name] = new ItemDefinition(def);
		else
			*(m_item_definitions[def.name]) = def;

		// Remove conflicting alias if it exists
		bool alias_removed = (m_aliases.erase(def.name) != 0);
		if(alias_removed)
			infostream<<"ItemDefManager: erased alias "<<def.name
					<<" because item was defined"<<std::endl;
	}
	virtual void unregisterItem(const std::string &name)
	{
		verbosestream<<"ItemDefManager: unregistering \""<<name<<"\""<<std::endl;

		delete m_item_definitions[name];
		m_item_definitions.erase(name);
	}
	virtual void registerAlias(const std::string &name,
			const std::string &convert_to)
	{
		if (m_item_definitions.find(name) == m_item_definitions.end()) {
			verbosestream<<"ItemDefManager: setting alias "<<name
				<<" -> "<<convert_to<<std::endl;
			m_aliases[name] = convert_to;
		}
	}
	void serialize(std::ostream &os, u16 protocol_version)
	{
		writeU8(os, 0); // version
		u16 count = m_item_definitions.size();
		writeU16(os, count);

		for (std::map<std::string, ItemDefinition *>::const_iterator
				it = m_item_definitions.begin();
				it != m_item_definitions.end(); ++it) {
			ItemDefinition *def = it->second;
			// Serialize ItemDefinition and write wrapped in a string
			std::ostringstream tmp_os(std::ios::binary);
			def->serialize(tmp_os, protocol_version);
			os << serializeString(tmp_os.str());
		}

		writeU16(os, m_aliases.size());

		for (StringMap::const_iterator
				it = m_aliases.begin();
				it != m_aliases.end(); ++it) {
			os << serializeString(it->first);
			os << serializeString(it->second);
		}
	}
	void deSerialize(std::istream &is)
	{
		// Clear everything
		clear();
		// Deserialize
		int version = readU8(is);
		if(version != 0)
			throw SerializationError("unsupported ItemDefManager version");
		u16 count = readU16(is);
		for(u16 i=0; i<count; i++)
		{
			// Deserialize a string and grab an ItemDefinition from it
			std::istringstream tmp_is(deSerializeString(is), std::ios::binary);
			ItemDefinition def;
			def.deSerialize(tmp_is);
			// Register
			registerItem(def);
		}
		u16 num_aliases = readU16(is);
		for(u16 i=0; i<num_aliases; i++)
		{
			std::string name = deSerializeString(is);
			std::string convert_to = deSerializeString(is);
			registerAlias(name, convert_to);
		}
	}
	void processQueue(IGameDef *gamedef)
	{
#ifndef SERVER
		//NOTE this is only thread safe for ONE consumer thread!
		while(!m_get_clientcached_queue.empty())
		{
			GetRequest<std::string, ClientCached*, u8, u8>
					request = m_get_clientcached_queue.pop();

			m_get_clientcached_queue.pushResult(request,
					createClientCachedDirect(request.key, (Client *)gamedef));
		}
#endif
	}
private:
	// Key is name
	std::map<std::string, ItemDefinition*> m_item_definitions;
	// Aliases
	StringMap m_aliases;
#ifndef SERVER
	// The id of the thread that is allowed to use irrlicht directly
	std::thread::id m_main_thread;
	// A reference to this can be returned when nothing is found, to avoid NULLs
	mutable ClientCached m_dummy_clientcached;
	// Cached textures and meshes
	mutable MutexedMap<std::string, ClientCached*> m_clientcached;
	// Queued clientcached fetches (to be processed by the main thread)
	mutable RequestQueue<std::string, ClientCached*, u8, u8> m_get_clientcached_queue;
#endif
};

IWritableItemDefManager* createItemDefManager()
{
	return new CItemDefManager();
}
n class="hl opt">); serializeSimpleSoundSpec(sound_footstep, os); serializeSimpleSoundSpec(sound_dig, os); serializeSimpleSoundSpec(sound_dug, os); writeU8(os, rightclickable); writeU8(os, drowning); writeU8(os, leveled); writeU8(os, liquid_range); writeU8(os, waving); // Stuff below should be moved to correct place in a version that otherwise changes // the protocol version os<<serializeString(mesh); collision_box.serialize(os, protocol_version); } void ContentFeatures::deSerialize(std::istream &is) { int version = readU8(is); if(version != 7){ deSerializeOld(is, version); return; } name = deSerializeString(is); groups.clear(); u32 groups_size = readU16(is); for(u32 i = 0; i < groups_size; i++){ std::string name = deSerializeString(is); int value = readS16(is); groups[name] = value; } drawtype = (enum NodeDrawType)readU8(is); visual_scale = readF1000(is); if(readU8(is) != 6) throw SerializationError("unsupported tile count"); for(u32 i = 0; i < 6; i++) tiledef[i].deSerialize(is); if(readU8(is) != CF_SPECIAL_COUNT) throw SerializationError("unsupported CF_SPECIAL_COUNT"); for(u32 i = 0; i < CF_SPECIAL_COUNT; i++) tiledef_special[i].deSerialize(is); alpha = readU8(is); post_effect_color.setAlpha(readU8(is)); post_effect_color.setRed(readU8(is)); post_effect_color.setGreen(readU8(is)); post_effect_color.setBlue(readU8(is)); param_type = (enum ContentParamType)readU8(is); param_type_2 = (enum ContentParamType2)readU8(is); is_ground_content = readU8(is); light_propagates = readU8(is); sunlight_propagates = readU8(is); walkable = readU8(is); pointable = readU8(is); diggable = readU8(is); climbable = readU8(is); buildable_to = readU8(is); deSerializeString(is); // legacy: used to be metadata_name liquid_type = (enum LiquidType)readU8(is); liquid_alternative_flowing = deSerializeString(is); liquid_alternative_source = deSerializeString(is); liquid_viscosity = readU8(is); liquid_renewable = readU8(is); light_source = readU8(is); damage_per_second = readU32(is); node_box.deSerialize(is); selection_box.deSerialize(is); legacy_facedir_simple = readU8(is); legacy_wallmounted = readU8(is); deSerializeSimpleSoundSpec(sound_footstep, is); deSerializeSimpleSoundSpec(sound_dig, is); deSerializeSimpleSoundSpec(sound_dug, is); rightclickable = readU8(is); drowning = readU8(is); leveled = readU8(is); liquid_range = readU8(is); waving = readU8(is); // If you add anything here, insert it primarily inside the try-catch // block to not need to increase the version. try{ // Stuff below should be moved to correct place in a version that // otherwise changes the protocol version mesh = deSerializeString(is); collision_box.deSerialize(is); }catch(SerializationError &e) {}; } /* CNodeDefManager */ class CNodeDefManager: public IWritableNodeDefManager { public: CNodeDefManager(); virtual ~CNodeDefManager(); void clear(); virtual IWritableNodeDefManager *clone(); inline virtual const ContentFeatures& get(content_t c) const; inline virtual const ContentFeatures& get(const MapNode &n) const; virtual bool getId(const std::string &name, content_t &result) const; virtual content_t getId(const std::string &name) const; virtual void getIds(const std::string &name, std::set<content_t> &result) const; virtual const ContentFeatures& get(const std::string &name) const; content_t allocateId(); virtual content_t set(const std::string &name, const ContentFeatures &def); virtual content_t allocateDummy(const std::string &name); virtual void updateAliases(IItemDefManager *idef); virtual void applyTextureOverrides(const std::string &override_filepath); virtual void updateTextures(IGameDef *gamedef, void (*progress_cbk)(void *progress_args, u32 progress, u32 max_progress), void *progress_cbk_args); void serialize(std::ostream &os, u16 protocol_version) const; void deSerialize(std::istream &is); inline virtual bool getNodeRegistrationStatus() const; inline virtual void setNodeRegistrationStatus(bool completed); virtual void pendNodeResolve(NodeResolver *nr); virtual bool cancelNodeResolveCallback(NodeResolver *nr); virtual void runNodeResolveCallbacks(); virtual void resetNodeResolveState(); private: void addNameIdMapping(content_t i, std::string name); #ifndef SERVER void fillTileAttribs(ITextureSource *tsrc, TileSpec *tile, TileDef *tiledef, u32 shader_id, bool use_normal_texture, bool backface_culling, u8 alpha, u8 material_type); #endif // Features indexed by id std::vector<ContentFeatures> m_content_features; // A mapping for fast converting back and forth between names and ids NameIdMapping m_name_id_mapping; // Like m_name_id_mapping, but only from names to ids, and includes // item aliases too. Updated by updateAliases() // Note: Not serialized. std::map<std::string, content_t> m_name_id_mapping_with_aliases; // A mapping from groups to a list of content_ts (and their levels) // that belong to it. Necessary for a direct lookup in getIds(). // Note: Not serialized. std::map<std::string, GroupItems> m_group_to_items; // Next possibly free id content_t m_next_id; // NodeResolvers to callback once node registration has ended std::vector<NodeResolver *> m_pending_resolve_callbacks; // True when all nodes have been registered bool m_node_registration_complete; }; CNodeDefManager::CNodeDefManager() { clear(); } CNodeDefManager::~CNodeDefManager() { #ifndef SERVER for (u32 i = 0; i < m_content_features.size(); i++) { ContentFeatures *f = &m_content_features[i]; for (u32 j = 0; j < 24; j++) { if (f->mesh_ptr[j]) f->mesh_ptr[j]->drop(); } } #endif } void CNodeDefManager::clear() { m_content_features.clear(); m_name_id_mapping.clear(); m_name_id_mapping_with_aliases.clear(); m_group_to_items.clear(); m_next_id = 0; resetNodeResolveState(); u32 initial_length = 0; initial_length = MYMAX(initial_length, CONTENT_UNKNOWN + 1); initial_length = MYMAX(initial_length, CONTENT_AIR + 1); initial_length = MYMAX(initial_length, CONTENT_IGNORE + 1); m_content_features.resize(initial_length); // Set CONTENT_UNKNOWN { ContentFeatures f; f.name = "unknown"; // Insert directly into containers content_t c = CONTENT_UNKNOWN; m_content_features[c] = f; addNameIdMapping(c, f.name); } // Set CONTENT_AIR { ContentFeatures f; f.name = "air"; f.drawtype = NDT_AIRLIKE; f.param_type = CPT_LIGHT; f.light_propagates = true; f.sunlight_propagates = true; f.walkable = false; f.pointable = false; f.diggable = false; f.buildable_to = true; f.is_ground_content = true; // Insert directly into containers content_t c = CONTENT_AIR; m_content_features[c] = f; addNameIdMapping(c, f.name); } // Set CONTENT_IGNORE { ContentFeatures f; f.name = "ignore"; f.drawtype = NDT_AIRLIKE; f.param_type = CPT_NONE; f.light_propagates = false; f.sunlight_propagates = false; f.walkable = false; f.pointable = false; f.diggable = false; f.buildable_to = true; // A way to remove accidental CONTENT_IGNOREs f.is_ground_content = true; // Insert directly into containers content_t c = CONTENT_IGNORE; m_content_features[c] = f; addNameIdMapping(c, f.name); } } IWritableNodeDefManager *CNodeDefManager::clone() { CNodeDefManager *mgr = new CNodeDefManager(); *mgr = *this; return mgr; } inline const ContentFeatures& CNodeDefManager::get(content_t c) const { return c < m_content_features.size() ? m_content_features[c] : m_content_features[CONTENT_UNKNOWN]; } inline const ContentFeatures& CNodeDefManager::get(const MapNode &n) const { return get(n.getContent()); } bool CNodeDefManager::getId(const std::string &name, content_t &result) const { std::map<std::string, content_t>::const_iterator i = m_name_id_mapping_with_aliases.find(name); if(i == m_name_id_mapping_with_aliases.end()) return false; result = i->second; return true; } content_t CNodeDefManager::getId(const std::string &name) const { content_t id = CONTENT_IGNORE; getId(name, id); return id; } void CNodeDefManager::getIds(const std::string &name, std::set<content_t> &result) const { //TimeTaker t("getIds", NULL, PRECISION_MICRO); if (name.substr(0,6) != "group:") { content_t id = CONTENT_IGNORE; if(getId(name, id)) result.insert(id); return; } std::string group = name.substr(6); std::map<std::string, GroupItems>::const_iterator i = m_group_to_items.find(group); if (i == m_group_to_items.end()) return; const GroupItems &items = i->second; for (GroupItems::const_iterator j = items.begin(); j != items.end(); ++j) { if ((*j).second != 0) result.insert((*j).first); } //printf("getIds: %dus\n", t.stop()); } const ContentFeatures& CNodeDefManager::get(const std::string &name) const { content_t id = CONTENT_UNKNOWN; getId(name, id); return get(id); } // returns CONTENT_IGNORE if no free ID found content_t CNodeDefManager::allocateId() { for (content_t id = m_next_id; id >= m_next_id; // overflow? ++id) { while (id >= m_content_features.size()) { m_content_features.push_back(ContentFeatures()); } const ContentFeatures &f = m_content_features[id]; if (f.name == "") { m_next_id = id + 1; return id; } } // If we arrive here, an overflow occurred in id. // That means no ID was found return CONTENT_IGNORE; } // IWritableNodeDefManager content_t CNodeDefManager::set(const std::string &name, const ContentFeatures &def) { // Pre-conditions assert(name != ""); assert(name == def.name); // Don't allow redefining ignore (but allow air and unknown) if (name == "ignore") { infostream << "NodeDefManager: WARNING: Ignoring " "CONTENT_IGNORE redefinition"<<std::endl; return CONTENT_IGNORE; } content_t id = CONTENT_IGNORE; if (!m_name_id_mapping.getId(name, id)) { // ignore aliases // Get new id id = allocateId(); if (id == CONTENT_IGNORE) { infostream << "NodeDefManager: WARNING: Absolute " "limit reached" << std::endl; return CONTENT_IGNORE; } assert(id != CONTENT_IGNORE); addNameIdMapping(id, name); } m_content_features[id] = def; verbosestream << "NodeDefManager: registering content id \"" << id << "\": name=\"" << def.name << "\""<<std::endl; // Add this content to the list of all groups it belongs to // FIXME: This should remove a node from groups it no longer // belongs to when a node is re-registered for (ItemGroupList::const_iterator i = def.groups.begin(); i != def.groups.end(); ++i) { std::string group_name = i->first; std::map<std::string, GroupItems>::iterator j = m_group_to_items.find(group_name); if (j == m_group_to_items.end()) { m_group_to_items[group_name].push_back( std::make_pair(id, i->second)); } else { GroupItems &items = j->second; items.push_back(std::make_pair(id, i->second)); } } return id; } content_t CNodeDefManager::allocateDummy(const std::string &name) { assert(name != ""); // Pre-condition ContentFeatures f; f.name = name; return set(name, f); } void CNodeDefManager::updateAliases(IItemDefManager *idef) { std::set<std::string> all = idef->getAll(); m_name_id_mapping_with_aliases.clear(); for (std::set<std::string>::iterator i = all.begin(); i != all.end(); i++) { std::string name = *i; std::string convert_to = idef->getAlias(name); content_t id; if (m_name_id_mapping.getId(convert_to, id)) { m_name_id_mapping_with_aliases.insert( std::make_pair(name, id)); } } } void CNodeDefManager::applyTextureOverrides(const std::string &override_filepath) { infostream << "CNodeDefManager::applyTextureOverrides(): Applying " "overrides to textures from " << override_filepath << std::endl; std::ifstream infile(override_filepath.c_str()); std::string line; int line_c = 0; while (std::getline(infile, line)) { line_c++; if (trim(line) == "") continue; std::vector<std::string> splitted = str_split(line, ' '); if (splitted.size() != 3) { errorstream << override_filepath << ":" << line_c << " Could not apply texture override \"" << line << "\": Syntax error" << std::endl; continue; } content_t id; if (!getId(splitted[0], id)) { errorstream << override_filepath << ":" << line_c << " Could not apply texture override \"" << line << "\": Unknown node \"" << splitted[0] << "\"" << std::endl; continue; } ContentFeatures &nodedef = m_content_features[id]; if (splitted[1] == "top") nodedef.tiledef[0].name = splitted[2]; else if (splitted[1] == "bottom") nodedef.tiledef[1].name = splitted[2]; else if (splitted[1] == "right") nodedef.tiledef[2].name = splitted[2]; else if (splitted[1] == "left") nodedef.tiledef[3].name = splitted[2]; else if (splitted[1] == "back") nodedef.tiledef[4].name = splitted[2]; else if (splitted[1] == "front") nodedef.tiledef[5].name = splitted[2]; else if (splitted[1] == "all" || splitted[1] == "*") for (int i = 0; i < 6; i++) nodedef.tiledef[i].name = splitted[2]; else if (splitted[1] == "sides") for (int i = 2; i < 6; i++) nodedef.tiledef[i].name = splitted[2]; else { errorstream << override_filepath << ":" << line_c << " Could not apply texture override \"" << line << "\": Unknown node side \"" << splitted[1] << "\"" << std::endl; continue; } } } void CNodeDefManager::updateTextures(IGameDef *gamedef, void (*progress_callback)(void *progress_args, u32 progress, u32 max_progress), void *progress_callback_args) { #ifndef SERVER infostream << "CNodeDefManager::updateTextures(): Updating " "textures in node definitions" << std::endl; ITextureSource *tsrc = gamedef->tsrc(); IShaderSource *shdsrc = gamedef->getShaderSource(); scene::ISceneManager* smgr = gamedef->getSceneManager(); scene::IMeshManipulator* meshmanip = smgr->getMeshManipulator(); bool new_style_water = g_settings->getBool("new_style_water"); bool new_style_leaves = g_settings->getBool("new_style_leaves"); bool connected_glass = g_settings->getBool("connected_glass"); bool opaque_water = g_settings->getBool("opaque_water"); bool enable_shaders = g_settings->getBool("enable_shaders"); bool enable_bumpmapping = g_settings->getBool("enable_bumpmapping"); bool enable_parallax_occlusion = g_settings->getBool("enable_parallax_occlusion"); bool enable_mesh_cache = g_settings->getBool("enable_mesh_cache"); bool use_normal_texture = enable_shaders && (enable_bumpmapping || enable_parallax_occlusion); u32 size = m_content_features.size(); for (u32 i = 0; i < size; i++) { ContentFeatures *f = &m_content_features[i]; // Figure out the actual tiles to use TileDef tiledef[6]; for (u32 j = 0; j < 6; j++) { tiledef[j] = f->tiledef[j]; if (tiledef[j].name == "") tiledef[j].name = "unknown_node.png"; } bool is_liquid = false; bool is_water_surface = false; u8 material_type = (f->alpha == 255) ? TILE_MATERIAL_BASIC : TILE_MATERIAL_ALPHA; switch (f->drawtype) { default: case NDT_NORMAL: f->solidness = 2; break; case NDT_AIRLIKE: f->solidness = 0; break; case NDT_LIQUID: assert(f->liquid_type == LIQUID_SOURCE); if (opaque_water) f->alpha = 255; if (new_style_water){ f->solidness = 0; } else { f->solidness = 1; f->backface_culling = false; } is_liquid = true; break; case NDT_FLOWINGLIQUID: assert(f->liquid_type == LIQUID_FLOWING); f->solidness = 0; if (opaque_water) f->alpha = 255; is_liquid = true; break; case NDT_GLASSLIKE: f->solidness = 0; f->visual_solidness = 1; break; case NDT_GLASSLIKE_FRAMED: f->solidness = 0; f->visual_solidness = 1; break; case NDT_GLASSLIKE_FRAMED_OPTIONAL: f->solidness = 0; f->visual_solidness = 1; f->drawtype = connected_glass ? NDT_GLASSLIKE_FRAMED : NDT_GLASSLIKE; break; case NDT_ALLFACES: f->solidness = 0; f->visual_solidness = 1; break; case NDT_ALLFACES_OPTIONAL: if (new_style_leaves) { f->drawtype = NDT_ALLFACES; f->solidness = 0; f->visual_solidness = 1; } else { f->drawtype = NDT_NORMAL; f->solidness = 2; for (u32 i = 0; i < 6; i++) tiledef[i].name += std::string("^[noalpha"); } if (f->waving == 1) material_type = TILE_MATERIAL_WAVING_LEAVES; break; case NDT_PLANTLIKE: f->solidness = 0; f->backface_culling = false; if (f->waving == 1) material_type = TILE_MATERIAL_WAVING_PLANTS; break; case NDT_FIRELIKE: f->backface_culling = false; f->solidness = 0; break; case NDT_MESH: f->solidness = 0; f->backface_culling = false; break; case NDT_TORCHLIKE: case NDT_SIGNLIKE: case NDT_FENCELIKE: case NDT_RAILLIKE: case NDT_NODEBOX: f->solidness = 0; break; } if (is_liquid) { material_type = (f->alpha == 255) ? TILE_MATERIAL_LIQUID_OPAQUE : TILE_MATERIAL_LIQUID_TRANSPARENT; if (f->name == "default:water_source") is_water_surface = true; } u32 tile_shader[6]; for (u16 j = 0; j < 6; j++) { tile_shader[j] = shdsrc->getShader("nodes_shader", material_type, f->drawtype); } if (is_water_surface) { tile_shader[0] = shdsrc->getShader("water_surface_shader", material_type, f->drawtype); } // Tiles (fill in f->tiles[]) for (u16 j = 0; j < 6; j++) { fillTileAttribs(tsrc, &f->tiles[j], &tiledef[j], tile_shader[j], use_normal_texture, f->backface_culling, f->alpha, material_type); } // Special tiles (fill in f->special_tiles[]) for (u16 j = 0; j < CF_SPECIAL_COUNT; j++) { fillTileAttribs(tsrc, &f->special_tiles[j], &f->tiledef_special[j], tile_shader[j], use_normal_texture, f->tiledef_special[j].backface_culling, f->alpha, material_type); } if ((f->drawtype == NDT_MESH) && (f->mesh != "")) { // Meshnode drawtype // Read the mesh and apply scale f->mesh_ptr[0] = gamedef->getMesh(f->mesh); if (f->mesh_ptr[0]){ v3f scale = v3f(1.0, 1.0, 1.0) * BS * f->visual_scale; scaleMesh(f->mesh_ptr[0], scale); recalculateBoundingBox(f->mesh_ptr[0]); meshmanip->recalculateNormals(f->mesh_ptr[0], true, false); } } else if ((f->drawtype == NDT_NODEBOX) && ((f->node_box.type == NODEBOX_REGULAR) || (f->node_box.type == NODEBOX_FIXED)) && (!f->node_box.fixed.empty())) { //Convert regular nodebox nodes to meshnodes //Change the drawtype and apply scale f->drawtype = NDT_MESH; f->mesh_ptr[0] = convertNodeboxNodeToMesh(f); v3f scale = v3f(1.0, 1.0, 1.0) * f->visual_scale; scaleMesh(f->mesh_ptr[0], scale); recalculateBoundingBox(f->mesh_ptr[0]); meshmanip->recalculateNormals(f->mesh_ptr[0], true, false); } //Cache 6dfacedir and wallmounted rotated clones of meshes if (enable_mesh_cache && f->mesh_ptr[0] && (f->param_type_2 == CPT2_FACEDIR)) { for (u16 j = 1; j < 24; j++) { f->mesh_ptr[j] = cloneMesh(f->mesh_ptr[0]); rotateMeshBy6dFacedir(f->mesh_ptr[j], j); recalculateBoundingBox(f->mesh_ptr[j]); meshmanip->recalculateNormals(f->mesh_ptr[j], true, false); } } else if (enable_mesh_cache && f->mesh_ptr[0] && (f->param_type_2 == CPT2_WALLMOUNTED)) { static const u8 wm_to_6d[6] = {20, 0, 16+1, 12+3, 8, 4+2}; for (u16 j = 1; j < 6; j++) { f->mesh_ptr[j] = cloneMesh(f->mesh_ptr[0]); rotateMeshBy6dFacedir(f->mesh_ptr[j], wm_to_6d[j]); recalculateBoundingBox(f->mesh_ptr[j]); meshmanip->recalculateNormals(f->mesh_ptr[j], true, false); } rotateMeshBy6dFacedir(f->mesh_ptr[0], wm_to_6d[0]); recalculateBoundingBox(f->mesh_ptr[0]); meshmanip->recalculateNormals(f->mesh_ptr[0], true, false); } progress_callback(progress_callback_args, i, size); } #endif } #ifndef SERVER void CNodeDefManager::fillTileAttribs(ITextureSource *tsrc, TileSpec *tile, TileDef *tiledef, u32 shader_id, bool use_normal_texture, bool backface_culling, u8 alpha, u8 material_type) { tile->shader_id = shader_id; tile->texture = tsrc->getTextureForMesh(tiledef->name, &tile->texture_id); tile->alpha = alpha; tile->material_type = material_type; // Normal texture if (use_normal_texture) tile->normal_texture = tsrc->getNormalTexture(tiledef->name); // Material flags tile->material_flags = 0; if (backface_culling) tile->material_flags |= MATERIAL_FLAG_BACKFACE_CULLING; if (tiledef->animation.type == TAT_VERTICAL_FRAMES) tile->material_flags |= MATERIAL_FLAG_ANIMATION_VERTICAL_FRAMES; // Animation parameters int frame_count = 1; if (tile->material_flags & MATERIAL_FLAG_ANIMATION_VERTICAL_FRAMES) { // Get texture size to determine frame count by aspect ratio v2u32 size = tile->texture->getOriginalSize(); int frame_height = (float)size.X / (float)tiledef->animation.aspect_w * (float)tiledef->animation.aspect_h; frame_count = size.Y / frame_height; int frame_length_ms = 1000.0 * tiledef->animation.length / frame_count; tile->animation_frame_count = frame_count; tile->animation_frame_length_ms = frame_length_ms; } if (frame_count == 1) { tile->material_flags &= ~MATERIAL_FLAG_ANIMATION_VERTICAL_FRAMES; } else { std::ostringstream os(std::ios::binary); tile->frames.resize(frame_count); for (int i = 0; i < frame_count; i++) { FrameSpec frame; os.str(""); os << tiledef->name << "^[verticalframe:" << frame_count << ":" << i; frame.texture = tsrc->getTextureForMesh(os.str(), &frame.texture_id); if (tile->normal_texture) frame.normal_texture = tsrc->getNormalTexture(os.str()); tile->frames[i] = frame; } } } #endif void CNodeDefManager::serialize(std::ostream &os, u16 protocol_version) const { writeU8(os, 1); // version u16 count = 0; std::ostringstream os2(std::ios::binary); for (u32 i = 0; i < m_content_features.size(); i++) { if (i == CONTENT_IGNORE || i == CONTENT_AIR || i == CONTENT_UNKNOWN) continue; const ContentFeatures *f = &m_content_features[i]; if (f->name == "") continue; writeU16(os2, i); // Wrap it in a string to allow different lengths without // strict version incompatibilities std::ostringstream wrapper_os(std::ios::binary); f->serialize(wrapper_os, protocol_version); os2<<serializeString(wrapper_os.str()); // must not overflow u16 next = count + 1; FATAL_ERROR_IF(next < count, "Overflow"); count++; } writeU16(os, count); os << serializeLongString(os2.str()); } void CNodeDefManager::deSerialize(std::istream &is) { clear(); int version = readU8(is); if (version != 1) throw SerializationError("unsupported NodeDefinitionManager version"); u16 count = readU16(is); std::istringstream is2(deSerializeLongString(is), std::ios::binary); ContentFeatures f; for (u16 n = 0; n < count; n++) { u16 i = readU16(is2); // Read it from the string wrapper std::string wrapper = deSerializeString(is2); std::istringstream wrapper_is(wrapper, std::ios::binary); f.deSerialize(wrapper_is); // Check error conditions if (i == CONTENT_IGNORE || i == CONTENT_AIR || i == CONTENT_UNKNOWN) { infostream << "NodeDefManager::deSerialize(): WARNING: " "not changing builtin node " << i << std::endl; continue; } if (f.name == "") { infostream << "NodeDefManager::deSerialize(): WARNING: " "received empty name" << std::endl; continue; } // Ignore aliases u16 existing_id; if (m_name_id_mapping.getId(f.name, existing_id) && i != existing_id) { infostream << "NodeDefManager::deSerialize(): WARNING: " "already defined with different ID: " << f.name << std::endl; continue; } // All is ok, add node definition with the requested ID if (i >= m_content_features.size()) m_content_features.resize((u32)(i) + 1); m_content_features[i] = f; addNameIdMapping(i, f.name); verbosestream << "deserialized " << f.name << std::endl; } } void CNodeDefManager::addNameIdMapping(content_t i, std::string name) { m_name_id_mapping.set(i, name); m_name_id_mapping_with_aliases.insert(std::make_pair(name, i)); } IWritableNodeDefManager *createNodeDefManager() { return new CNodeDefManager(); } //// Serialization of old ContentFeatures formats void ContentFeatures::serializeOld(std::ostream &os, u16 protocol_version) const { if (protocol_version == 13) { writeU8(os, 5); // version os<<serializeString(name); writeU16(os, groups.size()); for (ItemGroupList::const_iterator i = groups.begin(); i != groups.end(); i++) { os<<serializeString(i->first); writeS16(os, i->second); } writeU8(os, drawtype); writeF1000(os, visual_scale); writeU8(os, 6); for (u32 i = 0; i < 6; i++) tiledef[i].serialize(os, protocol_version); //CF_SPECIAL_COUNT = 2 before cf ver. 7 and protocol ver. 24 writeU8(os, 2); for (u32 i = 0; i < 2; i++) tiledef_special[i].serialize(os, protocol_version); writeU8(os, alpha); writeU8(os, post_effect_color.getAlpha()); writeU8(os, post_effect_color.getRed()); writeU8(os, post_effect_color.getGreen()); writeU8(os, post_effect_color.getBlue()); writeU8(os, param_type); writeU8(os, param_type_2); writeU8(os, is_ground_content); writeU8(os, light_propagates); writeU8(os, sunlight_propagates); writeU8(os, walkable); writeU8(os, pointable); writeU8(os, diggable); writeU8(os, climbable); writeU8(os, buildable_to); os<<serializeString(""); // legacy: used to be metadata_name writeU8(os, liquid_type); os<<serializeString(liquid_alternative_flowing); os<<serializeString(liquid_alternative_source); writeU8(os, liquid_viscosity); writeU8(os, light_source); writeU32(os, damage_per_second); node_box.serialize(os, protocol_version); selection_box.serialize(os, protocol_version); writeU8(os, legacy_facedir_simple); writeU8(os, legacy_wallmounted); serializeSimpleSoundSpec(sound_footstep, os); serializeSimpleSoundSpec(sound_dig, os); serializeSimpleSoundSpec(sound_dug, os); } else if (protocol_version > 13 && protocol_version < 24) { writeU8(os, 6); // version os<<serializeString(name); writeU16(os, groups.size()); for (ItemGroupList::const_iterator i = groups.begin(); i != groups.end(); i++) { os<<serializeString(i->first); writeS16(os, i->second); } writeU8(os, drawtype); writeF1000(os, visual_scale); writeU8(os, 6); for (u32 i = 0; i < 6; i++) tiledef[i].serialize(os, protocol_version); //CF_SPECIAL_COUNT = 2 before cf ver. 7 and protocol ver. 24 writeU8(os, 2); for (u32 i = 0; i < 2; i++) tiledef_special[i].serialize(os, protocol_version); writeU8(os, alpha); writeU8(os, post_effect_color.getAlpha()); writeU8(os, post_effect_color.getRed()); writeU8(os, post_effect_color.getGreen()); writeU8(os, post_effect_color.getBlue()); writeU8(os, param_type); writeU8(os, param_type_2); writeU8(os, is_ground_content); writeU8(os, light_propagates); writeU8(os, sunlight_propagates); writeU8(os, walkable); writeU8(os, pointable); writeU8(os, diggable); writeU8(os, climbable); writeU8(os, buildable_to); os<<serializeString(""); // legacy: used to be metadata_name writeU8(os, liquid_type); os<<serializeString(liquid_alternative_flowing); os<<serializeString(liquid_alternative_source); writeU8(os, liquid_viscosity); writeU8(os, liquid_renewable); writeU8(os, light_source); writeU32(os, damage_per_second); node_box.serialize(os, protocol_version); selection_box.serialize(os, protocol_version); writeU8(os, legacy_facedir_simple); writeU8(os, legacy_wallmounted); serializeSimpleSoundSpec(sound_footstep, os); serializeSimpleSoundSpec(sound_dig, os); serializeSimpleSoundSpec(sound_dug, os); writeU8(os, rightclickable); writeU8(os, drowning); writeU8(os, leveled); writeU8(os, liquid_range); } else throw SerializationError("ContentFeatures::serialize(): " "Unsupported version requested"); } void ContentFeatures::deSerializeOld(std::istream &is, int version) { if (version == 5) // In PROTOCOL_VERSION 13 { name = deSerializeString(is); groups.clear(); u32 groups_size = readU16(is); for(u32 i=0; i<groups_size; i++){ std::string name = deSerializeString(is); int value = readS16(is); groups[name] = value; } drawtype = (enum NodeDrawType)readU8(is); visual_scale = readF1000(is); if (readU8(is) != 6) throw SerializationError("unsupported tile count"); for (u32 i = 0; i < 6; i++) tiledef[i].deSerialize(is); if (readU8(is) != CF_SPECIAL_COUNT) throw SerializationError("unsupported CF_SPECIAL_COUNT"); for (u32 i = 0; i < CF_SPECIAL_COUNT; i++) tiledef_special[i].deSerialize(is); alpha = readU8(is); post_effect_color.setAlpha(readU8(is)); post_effect_color.setRed(readU8(is)); post_effect_color.setGreen(readU8(is)); post_effect_color.setBlue(readU8(is)); param_type = (enum ContentParamType)readU8(is); param_type_2 = (enum ContentParamType2)readU8(is); is_ground_content = readU8(is); light_propagates = readU8(is); sunlight_propagates = readU8(is); walkable = readU8(is); pointable = readU8(is); diggable = readU8(is); climbable = readU8(is); buildable_to = readU8(is); deSerializeString(is); // legacy: used to be metadata_name liquid_type = (enum LiquidType)readU8(is); liquid_alternative_flowing = deSerializeString(is); liquid_alternative_source = deSerializeString(is); liquid_viscosity = readU8(is); light_source = readU8(is); damage_per_second = readU32(is); node_box.deSerialize(is); selection_box.deSerialize(is); legacy_facedir_simple = readU8(is); legacy_wallmounted = readU8(is); deSerializeSimpleSoundSpec(sound_footstep, is); deSerializeSimpleSoundSpec(sound_dig, is); deSerializeSimpleSoundSpec(sound_dug, is); } else if (version == 6) { name = deSerializeString(is); groups.clear(); u32 groups_size = readU16(is); for (u32 i = 0; i < groups_size; i++) { std::string name = deSerializeString(is); int value = readS16(is); groups[name] = value; } drawtype = (enum NodeDrawType)readU8(is); visual_scale = readF1000(is); if (readU8(is) != 6) throw SerializationError("unsupported tile count"); for (u32 i = 0; i < 6; i++) tiledef[i].deSerialize(is); // CF_SPECIAL_COUNT in version 6 = 2 if (readU8(is) != 2) throw SerializationError("unsupported CF_SPECIAL_COUNT"); for (u32 i = 0; i < 2; i++) tiledef_special[i].deSerialize(is); alpha = readU8(is); post_effect_color.setAlpha(readU8(is)); post_effect_color.setRed(readU8(is)); post_effect_color.setGreen(readU8(is)); post_effect_color.setBlue(readU8(is)); param_type = (enum ContentParamType)readU8(is); param_type_2 = (enum ContentParamType2)readU8(is); is_ground_content = readU8(is); light_propagates = readU8(is); sunlight_propagates = readU8(is); walkable = readU8(is); pointable = readU8(is); diggable = readU8(is); climbable = readU8(is); buildable_to = readU8(is); deSerializeString(is); // legacy: used to be metadata_name liquid_type = (enum LiquidType)readU8(is); liquid_alternative_flowing = deSerializeString(is); liquid_alternative_source = deSerializeString(is); liquid_viscosity = readU8(is); liquid_renewable = readU8(is); light_source = readU8(is); damage_per_second = readU32(is); node_box.deSerialize(is); selection_box.deSerialize(is); legacy_facedir_simple = readU8(is); legacy_wallmounted = readU8(is); deSerializeSimpleSoundSpec(sound_footstep, is); deSerializeSimpleSoundSpec(sound_dig, is); deSerializeSimpleSoundSpec(sound_dug, is); rightclickable = readU8(is); drowning = readU8(is); leveled = readU8(is); liquid_range = readU8(is); } else { throw SerializationError("unsupported ContentFeatures version"); } } inline bool CNodeDefManager::getNodeRegistrationStatus() const { return m_node_registration_complete; } inline void CNodeDefManager::setNodeRegistrationStatus(bool completed) { m_node_registration_complete = completed; } void CNodeDefManager::pendNodeResolve(NodeResolver *nr) { nr->m_ndef = this; if (m_node_registration_complete) nr->nodeResolveInternal(); else m_pending_resolve_callbacks.push_back(nr); } bool CNodeDefManager::cancelNodeResolveCallback(NodeResolver *nr) { size_t len = m_pending_resolve_callbacks.size(); for (size_t i = 0; i != len; i++) { if (nr != m_pending_resolve_callbacks[i]) continue; len--; m_pending_resolve_callbacks[i] = m_pending_resolve_callbacks[len]; m_pending_resolve_callbacks.resize(len); return true; } return false; } void CNodeDefManager::runNodeResolveCallbacks() { for (size_t i = 0; i != m_pending_resolve_callbacks.size(); i++) { NodeResolver *nr = m_pending_resolve_callbacks[i]; nr->nodeResolveInternal(); } m_pending_resolve_callbacks.clear(); } void CNodeDefManager::resetNodeResolveState() { m_node_registration_complete = false; m_pending_resolve_callbacks.clear(); } //// //// NodeResolver //// NodeResolver::NodeResolver() { m_ndef = NULL; m_nodenames_idx = 0; m_nnlistsizes_idx = 0; m_resolve_done = false; m_nodenames.reserve(16); m_nnlistsizes.reserve(4); } NodeResolver::~NodeResolver() { if (!m_resolve_done && m_ndef) m_ndef->cancelNodeResolveCallback(this); } void NodeResolver::nodeResolveInternal() { m_nodenames_idx = 0; m_nnlistsizes_idx = 0; resolveNodeNames(); m_resolve_done = true; m_nodenames.clear(); m_nnlistsizes.clear(); } bool NodeResolver::getIdFromNrBacklog(content_t *result_out, const std::string &node_alt, content_t c_fallback) { if (m_nodenames_idx == m_nodenames.size()) { *result_out = c_fallback; errorstream << "NodeResolver: no more nodes in list" << std::endl; return false; } content_t c; std::string name = m_nodenames[m_nodenames_idx++]; bool success = m_ndef->getId(name, c); if (!success && node_alt != "") { name = node_alt; success = m_ndef->getId(name, c); } if (!success) { errorstream << "NodeResolver: failed to resolve node name '" << name << "'." << std::endl; c = c_fallback; } *result_out = c; return success; } bool NodeResolver::getIdsFromNrBacklog(std::vector<content_t> *result_out, bool all_required, content_t c_fallback) { bool success = true; if (m_nnlistsizes_idx == m_nnlistsizes.size()) { errorstream << "NodeResolver: no more node lists" << std::endl; return false; } size_t length = m_nnlistsizes[m_nnlistsizes_idx++]; while (length--) { if (m_nodenames_idx == m_nodenames.size()) { errorstream << "NodeResolver: no more nodes in list" << std::endl; return false; } content_t c; std::string &name = m_nodenames[m_nodenames_idx++]; if (name.substr(0,6) != "group:") { if (m_ndef->getId(name, c)) { result_out->push_back(c); } else if (all_required) { errorstream << "NodeResolver: failed to resolve node name '" << name << "'." << std::endl; result_out->push_back(c_fallback); success = false; } } else { std::set<content_t> cids; std::set<content_t>::iterator it; m_ndef->getIds(name, cids); for (it = cids.begin(); it != cids.end(); ++it) result_out->push_back(*it); } } return success; }