{

const static int invalid_z = -30000;

matdata()

{

count = 0.0;

lower_z = invalid_z;

upper_z = invalid_z;

}

matdata (const matdata & copyme)

{

count = copyme.count;

lower_z = copyme.lower_z;

upper_z = copyme.upper_z;

}

float add(int z_level = invalid_z, float delta = 1.0)

{

count += delta;

if(z_level != invalid_z)

{

if(lower_z == invalid_z || z_level < lower_z)

{

lower_z = z_level;

}

if(upper_z == invalid_z || z_level > upper_z)

{

upper_z = z_level;

}

}

return count;

}

float count;

int lower_z;

int upper_z;

{

bool operator()(const _Tp& top, const _Tp& bottom) const

{

float topavg = (top.lower_z + top.upper_z)/2.0f;

float btmavg = (bottom.lower_z + bottom.upper_z)/2.0f;

return topavg > btmavg;

}

{

template<class T1, class T2>

bool operator()(const std::pair<T1, T2>& left, const std::pair<T1, T2>& right)

{

return P<T2>()(left.second, right.second);

}

{

if (!only_z)

con << std::setw(9) << int(data.count);

if(data.lower_z != data.upper_z)

con <<" Z:" << std::setw(4) << data.lower_z << ".." << data.upper_z << std::endl;

else

con <<" Z:" << std::setw(4) << data.lower_z << std::endl;

{

unsigned int total = 0;

MatSorter sorting_vector;

for (MatMap::const_iterator it = mat.begin(); it != mat.end(); ++it)

{

sorting_vector.push_back(*it);

}

std::sort(sorting_vector.begin(), sorting_vector.end(),

compare_pair_second<P>());

for (MatSorter::const_iterator it = sorting_vector.begin();

it != sorting_vector.end(); ++it)

{

if(size_t(it->first) >= materials.size())

{

con << "Bad index: " << it->first << " out of "

<< materials.size() << endl;

continue;

}

T* mat = materials[it->first];

// Somewhat of a hack, but it works because df::inorganic_raw and df::plant_raw both have a field named "id"

con << std::setw(25) << mat->id << " : ";

if (show_value)

con << std::setw(3) << getValue(*mat) << " : ";

printMatdata(con, it->second);

total += it->second.count;

}

con << ">>> TOTAL = " << total << std::endl << std::endl;

DFHack::Materials* mats, bool show_value)

{

MatMap ores;

MatMap gems;

MatMap rest;

for (const auto &kv : mat_map)

{

df::inorganic_raw *gloss = vector_get(world->raws.inorganics, kv.first);

if (!gloss)

{

con.printerr("invalid material gloss: %hi\n", kv.first);

continue;

}

if (gloss->material.isGem())

gems[kv.first] = kv.second;

else if (gloss->isOre())

ores[kv.first] = kv.second;

else

rest[kv.first] = kv.second;

}

con << "Ores:" << std::endl;

printMats<df::inorganic_raw, std::greater>(con, ores, world->raws.inorganics, show_value);

con << "Gems:" << std::endl;

printMats<df::inorganic_raw, std::greater>(con, gems, world->raws.inorganics, show_value);

con << "Other vein stone:" << std::endl;

printMats<df::inorganic_raw, std::greater>(con, rest, world->raws.inorganics, show_value);

{

commands.push_back(PluginCommand(

"prospect", "Show stats of available raw resources.",

prospector, false,

" Prints a big list of all the present minerals.\n"

" By default, only the visible part of the map is scanned.\n"

"Options:\n"

" all - Scan the whole map, as if it was revealed.\n"

" value - Show material value in the output. Most useful for gems.\n"

" hell - Show the Z range of HFS tubes. Implies 'all'.\n"

"Pre-embark estimate:\n"

" If called during the embark selection screen, displays\n"

" an estimate of layer stone availability. If the 'all'\n"

" option is specified, also estimates veins.\n"

" The estimate is computed either for 1 embark tile of the\n"

" blinking biome, or for all tiles of the embark rectangle.\n"

));

return CR_OK;

coord2d biome_off, biome_pos;

df::region_map_entry *biome;

df::world_geo_biome *geo_biome;

int elevation, max_soil_depth;

int min_z, base_z;

std::map<int, float> penalty;

{

if (x < 0 || y < 0 || x > 15 || y > 15) {

out.printerr("Invalid embark coordinates: x=%i, y=%i\n", x, y);

return false;

}

// Find actual biome

int bv = clip_range(details->biome[x][y] & 15, 1, 9);

tile.biome_off = biome_delta[bv-1];

df::world_data *data = world->world_data;

int bx = clip_range(details->pos.x + tile.biome_off.x, 0, data->world_width-1);

int by = clip_range(details->pos.y + tile.biome_off.y, 0, data->world_height-1);

tile.biome_pos = coord2d(bx, by);

tile.biome = &data->region_map[bx][by];

tile.geo_biome = df::world_geo_biome::find(tile.biome->geo_index);

// Compute surface elevation

tile.elevation = details->elevation[x][y];

tile.max_soil_depth = std::max((154-tile.elevation)/5,1);

tile.penalty.clear();

// Special biome adjustments

if (!tile.biome->flags.is_set(region_map_entry_flags::is_lake))

{

// Mountain biome

if (tile.biome->elevation >= 150)

tile.max_soil_depth = 0;

// Ocean biome

else if (tile.biome->elevation < 100)

{

if (tile.elevation == 99)

tile.elevation = 98;

if (tile.geo_biome && (tile.geo_biome->unk1 == 4 || tile.geo_biome->unk1 == 5))

{

auto b_details = get_details(data, tile.biome_pos);

if (b_details && b_details->unk12e8 < 500)

tile.max_soil_depth = 0;

}

}

}

tile.base_z = tile.elevation-1;

auto &features = details->features[x][y];

// Collect global feature layer depths and apply penalties

std::map<int, int> layer_bottom, layer_top;

bool sea_found = false;

for (size_t i = 0; i < features.size(); i++)

{

auto feature = features[i];

auto layer = df::world_underground_region::find(feature->layer);

if (!layer || feature->min_z == -30000) continue;

layer_bottom[layer->layer_depth] = feature->min_z;

layer_top[layer->layer_depth] = feature->max_z;

tile.base_z = std::min(tile.base_z, (int)feature->min_z);

float penalty = 1.0f;

switch (layer->type) {

case df::world_underground_region::Cavern:

penalty = 0.75f;

break;

case df::world_underground_region::MagmaSea:

sea_found = true;

tile.min_z = feature->min_z;

for (int i = feature->min_z; i <= feature->max_z; i++)

tile.penalty[i] = 0.2 + 0.6f*(i-feature->min_z)/(feature->max_z-feature->min_z+1);

break;

case df::world_underground_region::Underworld:

penalty = 0.0f;

break;

}

if (penalty != 1.0f)

{

for (int i = feature->min_z; i <= feature->max_z; i++)

tile.penalty[i] = penalty;

}

}

if (!sea_found)

{

out.printerr("Could not find magma sea; depth may be incorrect.\n");

tile.min_z = tile.base_z;

}

// Scan for big local features and apply their penalties

for (size_t i = 0; i < features.size(); i++)

{

auto feature = features[i];

auto lfeature = Maps::getLocalInitFeature(details->pos, feature->feature_idx);

if (!lfeature)

continue;

switch (lfeature->getType())

{

case feature_type::pit:

case feature_type::magma_pool:

case feature_type::volcano:

for (int i = layer_bottom[lfeature->end_depth];

i <= layer_top[lfeature->start_depth]; i++)

tile.penalty[i] = std::min(0.4f, map_find(tile.penalty, i, 1.0f));

break;

default:

break;

}

}

return true;

{

for (int z = min_z; z <= max_z; z++)

data.add(z, map_find(tile.penalty, z, 1) * amount);

{

using namespace geo_layer_type;

df::world_geo_biome *geo_biome = tile.geo_biome;

if (!geo_biome)

{

out.printerr("Region geo-biome not found: (%d,%d)\n",

tile.biome_pos.x, tile.biome_pos.y);

return false;

}

// soil depth increases by 1 every 5 levels below 150

unsigned nlayers = std::min<unsigned>(16, geo_biome->layers.size());

int soil_size = 0;

for (unsigned i = 0; i < nlayers; i++)

{

auto layer = geo_biome->layers[i];

if (layer->type == SOIL || layer->type == SOIL_SAND)

soil_size += layer->top_height - layer->bottom_height + 1;

}

// Compute shifts for layers in the stack

int soil_erosion = soil_size - std::min(soil_size,tile.max_soil_depth);

int layer_shift[16];

int cur_shift = tile.elevation+soil_erosion-1;

for (unsigned i = 0; i < nlayers; i++)

{

auto layer = geo_biome->layers[i];

layer_shift[i] = cur_shift;

if (layer->type == SOIL || layer->type == SOIL_SAND)

{

int size = layer->top_height - layer->bottom_height + 1;

// This is to replicate the behavior of a probable bug in the

// map generation code: if a layer is partially eroded, the

// removed levels are in fact transferred to the layer below,

// because unlike the case of removing the whole layer, the code

// does not execute a loop to shift the lower part of the stack up.

if (size > soil_erosion)

cur_shift -= soil_erosion;

soil_erosion -= std::min(soil_erosion, size);

}

}

// Estimate amounts

int last_bottom = tile.elevation;

for (unsigned i = 0; i < nlayers; i++)

{

auto layer = geo_biome->layers[i];

int top_z = last_bottom-1;

int bottom_z = std::max(layer->bottom_height + layer_shift[i], tile.min_z);

if (i+1 == nlayers) // stretch layer if needed

bottom_z = tile.min_z;

if (top_z < bottom_z)

continue;

last_bottom = bottom_z;

float layer_size = 48*48;

int sums[ENUM_LAST_ITEM(inclusion_type)+1] = { 0 };

// Small clusters actually belong to different groups depending on whether they are enclosed by layers, clusters, or veins.

// Similarly, veins belong to different groups depending on whether they are enclosed by layers or clusters.

// However, these fine details probably drown in the uncertainty inherent in estimating amounts based on RNG distributed proportions.

for (unsigned j = 0; j < layer->vein_mat.size(); j++)

if (is_valid_enum_item<df::inclusion_type>(layer->vein_type[j]))

sums[layer->vein_type[j]] += layer->vein_unk_38[j];

for (unsigned j = 0; j < layer->vein_mat.size(); j++)

{

// TODO: find out how to estimate the real density

// this code assumes that vein_unk_38 is the weight

// used when choosing the vein material

float size = float(layer->vein_unk_38[j]);

df::inclusion_type type = layer->vein_type[j];

// There doesn't seem to be any relation between mineral scarcity and the number or size of clusters and veins,

// apart from when it leads to them being completely absent, e.g. either there are 10 small clusters or there are none.

switch (type)

{

case inclusion_type::VEIN:

if (layer->vein_nested_in[j] == -1) { // Veins directly in the layer, i.e. the normal case

// 2-4 veins with a guessed average of 100 tiles each

size = size * 300 / sums[type];

}

else { // Should only be veins in clusters

// 1 vein with a very shaky guessed average of 50 tiles

// TODO: Veins in clusters do not share the pool with normal veins but are added on top of it, but this will have to do for now

size = size * 50 / sums[type];

}

break;

case inclusion_type::CLUSTER:

// 1 cluster of 750 tiles avg. The average size can be refined.

size = size * 750 / sums[type];

break;

case inclusion_type::CLUSTER_SMALL:

if (layer->vein_nested_in[j] == -1 ||

layer->vein_type[layer->vein_nested_in[j]] != inclusion_type::VEIN) {

// Small clusters in the layer and in clusters share a common pool of 10 clusters

// An estimate is that the average sum of these is 52, but there is room for refinement

size = size * 52 / sums[type];

}

else {

// A very shaky guess of an average of 3 clusters with 15.6->16 tiles

// TODO: Small clusters in veins appear in addition to the regular set, but this will have to do for now

size = size * 16 / sums[type];

}

break;

case inclusion_type::CLUSTER_ONE:

if (layer->vein_nested_in[j] == -1 ||

layer->vein_type[layer->vein_nested_in[j]] != inclusion_type::CLUSTER_SMALL) {

// Doesn't happen with vanilla raws, so this is just a wild guess that it might happen 5 times

size = size * 5 / sums[type];

}

else {

// Vanilla only has single clusters nested in small ones. We weigh the estimate based on the proportion of

// the small clusters out of the 10 standard ones. Note that this does not distinguish between enclosing small

// clusters that are actually in standard pool of 10 and those in veins (TODO)

size = size * layer->vein_unk_38[layer->vein_nested_in[j]] * 10 / sums[inclusion_type::CLUSTER_SMALL] / sums[type];

}

break;

default:

// shouldn't actually happen

size = 1;

}

layer_size -= size;

add_materials(tile, veinMats[layer->vein_mat[j]], size, bottom_z, top_z);

}

add_materials(tile, layerMats[layer->mat_index], layer_size, bottom_z, top_z);

}

return true;

bool showHidden, bool showValue)

{

if (!world || !world->world_data)

{

out.printerr("World data is not available.\n");

return CR_FAILURE;

}

df::world_data *data = world->world_data;

coord2d cur_region = screen->location.region_pos;

auto cur_details = get_details(data, cur_region);

if (!cur_details)

{

out.printerr("Current region details are not available.\n");

return CR_FAILURE;

}

// Compute material maps

MatMap layerMats;

MatMap veinMats;

matdata world_bottom;

// Compute biomes

std::map<coord2d, int> biomes;

/*if (screen->biome_highlighted)

for (int x = screen->location.embark_pos_min.x; x <= 15 && x <= screen->location.embark_pos_max.x; x++)

{

for (int y = screen->location.embark_pos_min.y; y <= 15 && y <= screen->location.embark_pos_max.y; y++)

{

EmbarkTileLayout tile;

if (!estimate_underground(out, tile, cur_details, x, y) ||

!estimate_materials(out, tile, layerMats, veinMats))

return CR_FAILURE;

world_bottom.add(tile.base_z, 0);

world_bottom.add(tile.elevation-1, 0);

}

}

// Print the report

out << "Layer materials:" << std::endl;

printMats<df::inorganic_raw, shallower>(out, layerMats, world->raws.inorganics, showValue);

if (showHidden) {

DFHack::Materials *mats = Core::getInstance().getMaterials();

printVeins(out, veinMats, mats, showValue);

mats->Finish();

}

out << "Embark depth: " << (world_bottom.upper_z-world_bottom.lower_z+1) << " ";

printMatdata(out, world_bottom, true);

out << std::endl << "Warning: the above data is only a very rough estimate." << std::endl;

return CR_OK;

{

bool showHidden = false;

bool showPlants = true;

bool showSlade = true;

bool showTemple = true;

bool showValue = false;

bool showTube = false;

for(size_t i = 0; i < parameters.size();i++)

{

if (parameters[i] == "all")

{

showHidden = true;

}

else if (parameters[i] == "value")

{

showValue = true;

}

else if (parameters[i] == "hell")

{

showHidden = showTube = true;

}

else

return CR_WRONG_USAGE;

}

CoreSuspender suspend;

// Embark screen active: estimate using world geology data

auto screen = Gui::getViewscreenByType<df::viewscreen_choose_start_sitest>(0);

if (screen)

return embark_prospector(con, screen, showHidden, showValue);

if (!Maps::IsValid())

{

con.printerr("Map is not available!\n");

return CR_FAILURE;

}

uint32_t x_max = 0, y_max = 0, z_max = 0;

Maps::getSize(x_max, y_max, z_max);

MapExtras::MapCache map;

DFHack::Materials *mats = Core::getInstance().getMaterials();

DFHack::t_feature blockFeatureGlobal;

DFHack::t_feature blockFeatureLocal;

bool hasAquifer = false;

bool hasDemonTemple = false;

bool hasLair = false;

MatMap baseMats;

MatMap layerMats;

MatMap veinMats;

MatMap plantMats;

MatMap treeMats;

matdata liquidWater;

matdata liquidMagma;

matdata aquiferTiles;

matdata tubeTiles;

for(uint32_t z = 0; z < z_max; z++)

{

for(uint32_t b_y = 0; b_y < y_max; b_y++)

{

for(uint32_t b_x = 0; b_x < x_max; b_x++)

{

// Get the map block

df::coord2d blockCoord(b_x, b_y);

MapExtras::Block *b = map.BlockAt(DFHack::DFCoord(b_x, b_y, z));

if (!b || !b->is_valid())

{

continue;

}

// Find features

b->GetGlobalFeature(&blockFeatureGlobal);

b->GetLocalFeature(&blockFeatureLocal);

int global_z = world->map.region_z + z;

// Iterate over all the tiles in the block

for(uint32_t y = 0; y < 16; y++)

{

for(uint32_t x = 0; x < 16; x++)

{

df::coord2d coord(x, y);

df::tile_designation des = b->DesignationAt(coord);

df::tile_occupancy occ = b->OccupancyAt(coord);

// Skip hidden tiles

if (!showHidden && des.bits.hidden)

{

continue;

}

// Check for aquifer

if (des.bits.water_table)

{

hasAquifer = true;

aquiferTiles.add(global_z);

}

// Check for lairs

if (occ.bits.monster_lair)

{

hasLair = true;

}

// Check for liquid

if (des.bits.flow_size)

{

if (des.bits.liquid_type == tile_liquid::Magma)

liquidMagma.add(global_z);

else

liquidWater.add(global_z);

}

df::tiletype type = b->tiletypeAt(coord);

df::tiletype_shape tileshape = tileShape(type);

df::tiletype_material tilemat = tileMaterial(type);

// We only care about these types

switch (tileshape)

{

case tiletype_shape::WALL:

case tiletype_shape::FORTIFICATION:

break;

case tiletype_shape::EMPTY:

/* A heuristic: tubes inside adamantine have EMPTY:AIR tiles which

if (tilemat == tiletype_material::AIR &&

des.bits.feature_local && des.bits.hidden &&

blockFeatureLocal.type == feature_type::deep_special_tube)

{

tubeTiles.add(global_z);

}

default:

continue;

}

// Count the material type

baseMats[tilemat].add(global_z);

// Find the type of the tile

switch (tilemat)

{

case tiletype_material::SOIL:

case tiletype_material::STONE:

layerMats[b->layerMaterialAt(coord)].add(global_z);

break;

case tiletype_material::MINERAL:

veinMats[b->veinMaterialAt(coord)].add(global_z);

break;

case tiletype_material::FEATURE:

if (blockFeatureLocal.type != -1 && des.bits.feature_local)

{

if (blockFeatureLocal.type == feature_type::deep_special_tube

&& blockFeatureLocal.main_material == 0) // stone

{

veinMats[blockFeatureLocal.sub_material].add(global_z);

}

else if (showTemple

&& blockFeatureLocal.type == feature_type::deep_surface_portal)

{

hasDemonTemple = true;

}

}

if (showSlade && blockFeatureGlobal.type != -1 && des.bits.feature_global

&& blockFeatureGlobal.type == feature_type::underworld_from_layer

&& blockFeatureGlobal.main_material == 0) // stone

{

layerMats[blockFeatureGlobal.sub_material].add(global_z);

}

break;

case tiletype_material::LAVA_STONE:

// TODO ?

break;

default:

break;

}

}

}

// Check plants this way, as the other way wasn't getting them all

// and we can check visibility more easily here

if (showPlants)

{

auto block = Maps::getBlockColumn(b_x,b_y);

vector<df::plant *> *plants = block ? &block->plants : NULL;

if(plants)

{

for (PlantList::const_iterator it = plants->begin(); it != plants->end(); it++)

{

const df::plant & plant = *(*it);

if (uint32_t(plant.pos.z) != z)

continue;

df::coord2d loc(plant.pos.x, plant.pos.y);

loc = loc % 16;

if (showHidden || !b->DesignationAt(loc).bits.hidden)

{

if(plant.flags.bits.is_shrub)

plantMats[plant.material].add(global_z);

else

treeMats[plant.material].add(global_z);

}

}

}

}

// Block end

} // block x

// Clean uneeded memory

map.trash();

} // block y

} // z

MatMap::const_iterator it;

con << "Base materials:" << std::endl;

for (it = baseMats.begin(); it != baseMats.end(); ++it)

{

con << std::setw(25) << ENUM_KEY_STR(tiletype_material,(df::tiletype_material)it->first) << " : " << it->second.count << std::endl;

}

if (liquidWater.count || liquidMagma.count)

{

con << std::endl << "Liquids:" << std::endl;

if (liquidWater.count)

{

con << std::setw(25) << "WATER" << " : ";

printMatdata(con, liquidWater);

}

if (liquidWater.count)

{

con << std::setw(25) << "MAGMA" << " : ";

printMatdata(con, liquidMagma);

}

}

con << std::endl << "Layer materials:" << std::endl;

printMats<df::inorganic_raw, shallower>(con, layerMats, world->raws.inorganics, showValue);

printVeins(con, veinMats, mats, showValue);

if (showPlants)

{

con << "Shrubs:" << std::endl;

printMats<df::plant_raw, std::greater>(con, plantMats, world->raws.plants.all, showValue);

con << "Wood in trees:" << std::endl;

printMats<df::plant_raw, std::greater>(con, treeMats, world->raws.plants.all, showValue);

}

if (hasAquifer)

{

con << "Has aquifer";

if (aquiferTiles.count)

{

con << " : ";

printMatdata(con, aquiferTiles);

}

else

con << std::endl;

}

if (showTube && tubeTiles.count)

{

con << "Has HFS tubes : ";

printMatdata(con, tubeTiles);

}

if (hasDemonTemple)

{

con << "Has demon temple" << std::endl;

}

if (hasLair)

{

con << "Has lair" << std::endl;

}

// Cleanup

mats->Finish();

con << std::endl;

return CR_OK;