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51521a135a8b83a63d0fa3c4c7fbad12ff203e3f
maszyna/model/Model3d.cpp
pawelw 51521a135a Text displays: accept characters above 127, in windows-1250 or utf-8 (#198) 
* Text displays: accept characters above 127, in windows-1250 or utf-8

A text display (sub-model of type "text") looks up the sub-model of each character
in a 256 entry table, and indexed it with a plain char. With char being signed, any
character above 127 gave a negative index: reading the text went outside the table,
and so did filling the table if a character sub-model had such a name. In effect the
displays could only show ASCII, and a text with national characters could crash.

The lookup is now keyed by unicode code point. Both the displayed text and the names
of the character sub-models are decoded as utf-8 if they are valid utf-8, and as
windows-1250 otherwise, so legacy (ansi) sceneries and models work next to utf-8
ones, and the two can be mixed. A short ansi text can be valid utf-8 by accident
(two upper case accented letters in a row will do); when both readings are possible
the one which finds more of its characters in the model is used.

The rest is unchanged: the first character of the text still isn't displayed, the
characters are still drawn in the translucent pass only. A missing text pointer no
longer gets dereferenced.

* Text displays: prepare the characters once for each text

The sequence of character sub-models was cached for the last text only, so
displays of several instances drawn in turn decoded their texts again on
every draw. It is now kept for each text the display shows; the texts of the
instances don't change, so a draw costs a single lookup.

Also the comments added in the renderers are now in English.

* Text displays: move the text decoding to utilities

utf8_to_utf32() and win1250_to_utf32(), with the windows-1250 table, now sit
next to win1250_to_utf8(). The existing function maps only the Polish letters
and passes other bytes above 127 through, so it can't serve the displays.

* Text displays: address the SonarCloud findings

std::array instead of the C-style arrays, the utf-8 sequence length worked
out in a function of its own instead of nested conditional operators,
std::byte for the bit operations, std::ranges::count_if and contains().
The character loop of the renderers moved to Render_Alpha_text(), which
takes the nesting back to the limit, and the static pasText is accessed
through the class.
2026-10-03 12:05:32 +02:00

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/*
This Source Code Form is subject to the
terms of the Mozilla Public License, v.
2.0. If a copy of the MPL was not
distributed with this file, You can
obtain one at
http://mozilla.org/MPL/2.0/.
*/
/*
MaSzyna EU07 locomotive simulator
Copyright (C) 2001-2004 Marcin Wozniak, Maciej Czapkiewicz and others
*/
#include "stdafx.h"
#include "model/Model3d.h"
#include "utilities/Globals.h"
#include "utilities/Logs.h"
#include "utilities/utilities.h"
#include "rendering/renderer.h"
#include "utilities/Timer.h"
#include "simulation/simulation.h"
#include "simulation/simulationtime.h"
#include "world/mtable.h"
#include "scene/sn_utils.h"
#include <bit>
//---------------------------------------------------------------------------
using namespace Mtable;
float TSubModel::fSquareDist = 0.f;
std::uintptr_t TSubModel::iInstance; // numer renderowanego egzemplarza obiektu
std::uint32_t TSubModel::iVariantSeed = 0; // ziarno losowania wariantów tekstur renderowanego egzemplarza
texture_handle const *TSubModel::ReplacableSkinId = nullptr;
int TSubModel::iAlpha = 0x30300030; // maska do testowania flag tekstur wymiennych
TModel3d *TSubModel::pRoot; // Ra: tymczasowo wskaźnik na model widoczny z submodelu
std::string *TSubModel::pasText;
// przykłady dla TSubModel::iAlpha:
// 0x30300030 - wszystkie bez kanału alfa
// 0x31310031 - tekstura -1 używana w danym cyklu, pozostałe nie
// 0x32320032 - tekstura -2 używana w danym cyklu, pozostałe nie
// 0x34340034 - tekstura -3 używana w danym cyklu, pozostałe nie
// 0x38380038 - tekstura -4 używana w danym cyklu, pozostałe nie
// 0x3F3F003F - wszystkie wymienne tekstury używane w danym cyklu
// Ale w TModel3d okerśla przezroczystość tekstur wymiennych!
TSubModel::~TSubModel()
{
if (iFlags & 0x0200)
{ // wczytany z pliku tekstowego musi sam posprzątać
SafeDelete(Next);
SafeDelete(Child);
delete fMatrix; // własny transform trzeba usunąć (zawsze jeden)
}
};
void TSubModel::Name_Material(std::string const &Name)
{ // ustawienie nazwy submodelu, o
// ile nie jest wczytany z E3D
if (iFlags & 0x0200)
{ // tylko jeżeli submodel zosta utworzony przez new
m_materialname = Name;
}
};
void TSubModel::Name(std::string const &Name)
{ // ustawienie nazwy submodelu, o ile
// nie jest wczytany z E3D
if (iFlags & 0x0200)
pName = Name;
};
// sets rgb components of diffuse color override to specified value
void TSubModel::SetDiffuseOverride(glm::vec3 const &Color, bool const Includechildren, bool const Includesiblings)
{
if (eType == TP_FREESPOTLIGHT)
{
DiffuseOverride = Color;
}
if (true == Includesiblings)
{
auto sibling{this};
while ((sibling = sibling->Next) != nullptr)
{
sibling->SetDiffuseOverride(Color, Includechildren, false); // no need for all siblings to duplicate the work
}
}
if (true == Includechildren && Child != nullptr)
{
Child->SetDiffuseOverride(Color, Includechildren, true); // node's children include child's siblings and children
}
}
std::optional<glm::vec3> TSubModel::GetDiffuse(float Includesiblings)
{
if (eType == TP_FREESPOTLIGHT)
{
if (DiffuseOverride.x >= 0.0f)
return DiffuseOverride;
else
return glm::vec3(f4Diffuse);
}
if (Includesiblings)
{
auto sibling = this;
while ((sibling = sibling->Next))
{
auto result = sibling->GetDiffuse(true);
if (result)
return result;
}
}
if (Child)
return Child->GetDiffuse(true);
return std::nullopt;
}
// sets visibility level (alpha component) to specified value
void TSubModel::SetVisibilityLevel(float const Level, bool const Includechildren, bool const Includesiblings)
{
fVisible = Level;
if (true == Includesiblings)
{
auto sibling{this};
while ((sibling = sibling->Next) != nullptr)
{
sibling->SetVisibilityLevel(Level, Includechildren, false); // no need for all siblings to duplicate the work
}
}
if (true == Includechildren && Child != nullptr)
{
Child->SetVisibilityLevel(Level, Includechildren, true); // node's children include child's siblings and children
}
}
// sets light level (alpha component of illumination color) to specified value
void TSubModel::SetLightLevel(glm::vec4 const &Level, bool const Includechildren, bool const Includesiblings)
{
/*
f4Emision = Level;
*/
f4Diffuse = {Level.r, Level.g, Level.b, f4Diffuse.a};
f4Emision.a = Level.a;
if (true == Includesiblings)
{
auto sibling{this};
while ((sibling = sibling->Next) != nullptr)
{
sibling->SetLightLevel(Level, Includechildren, false); // no need for all siblings to duplicate the work
}
}
if (true == Includechildren && Child != nullptr)
{
Child->SetLightLevel(Level, Includechildren, true); // node's children include child's siblings and children
}
}
// sets activation threshold of self-illumination to specitied value
void TSubModel::SetSelfIllum(float const Threshold, bool const Includechildren, bool const Includesiblings)
{
fLight = Threshold;
if (true == Includesiblings)
{
auto sibling{this};
while ((sibling = sibling->Next) != nullptr)
{
sibling->SetSelfIllum(Threshold, Includechildren, false); // no need for all siblings to duplicate the work
}
}
if (true == Includechildren && Child != nullptr)
{
Child->SetSelfIllum(Threshold, Includechildren, true); // node's children include child's siblings and children
}
}
int TSubModel::SeekFaceNormal(std::vector<unsigned int> const &Masks, int const Startface, unsigned int const Mask, glm::vec3 const &Position, gfx::vertex_array const &Vertices)
{ // szukanie punktu stycznego do (pt), zwraca numer wierzchołka, a nie trójkąta
int facecount = m_geometry.vertex_count / 3;
for (int faceidx = Startface; faceidx < facecount; ++faceidx)
{
// pętla po trójkątach, od trójkąta (f)
if (Masks[faceidx] & Mask)
{
// jeśli wspólna maska powierzchni
for (int vertexidx = 0; vertexidx < 3; ++vertexidx)
{
if (Vertices[3 * faceidx + vertexidx].position == Position)
{
return 3 * faceidx + vertexidx;
}
}
}
}
return -1; // nie znaleziono stycznego wierzchołka
}
float emm1[] = {1, 1, 1, 0};
float emm2[] = {0, 0, 0, 1};
inline void readColor(cParser &parser, glm::vec4 &color)
{
int discard;
parser.getTokens(4, false);
parser >> discard >> color.r >> color.g >> color.b;
color /= 255.0f;
};
inline void readMatrix(cParser &parser, float4x4 &matrix)
{ // Ra: wczytanie transforma
parser.getTokens(16, false);
for (int x = 0; x <= 3; ++x) // wiersze
for (int y = 0; y <= 3; ++y) // kolumny
parser >> matrix(x)[y];
};
template <typename T> void UserdataParse(cParser &parser, gfx::vertex_userdata &vertex)
{
static_assert(sizeof(T) == sizeof(float), "userdata is stored as raw 32-bit values");
parser.getTokens(4);
for (int i = 0; i < 4; ++i)
{
T value{};
parser >> value;
vertex.data[i] = std::bit_cast<float>(value);
}
}
std::pair<int, int> TSubModel::Load(cParser &parser, bool dynamic)
{ // Ra: VBO tworzone na poziomie modelu, a nie submodeli
auto token{parser.getToken<std::string>()};
if (token != "type:")
{
std::string errormessage{"Bad model: expected submodel type definition not found while loading model \"" + parser.Name() + "\"" + "\ncurrent model data stream content: \""};
auto count{10};
while (true == parser.getTokens() && false == (token = parser.peek()).empty() && token != "parent:")
{
// skip data until next submodel, dump first few tokens in the error message
if (--count > 0)
{
errormessage += token + " ";
}
}
errormessage += "(...)\"";
ErrorLog(errormessage);
return {0, 0};
}
{
auto const type{parser.getToken<std::string>()};
if (type == "mesh")
eType = GL_TRIANGLES; // submodel - trójkaty
else if (type == "point")
eType = GL_POINTS; // co to niby jest?
else if (type == "freespotlight")
eType = TP_FREESPOTLIGHT; // światełko
else if (type == "text")
eType = TP_TEXT; // wyświetlacz tekstowy (generator napisów)
else if (type == "stars")
eType = TP_STARS; // wiele punktów świetlnych
};
parser.ignoreToken();
parser.getTokens(1, false); // nazwa submodelu bez zmieny na małe
parser >> token;
Name(token);
if (dynamic)
{
// dla pojazdu, blokujemy załączone submodele, które mogą być nieobsługiwane
if (token.size() >= 3 && token.find("_on") + 3 == token.length())
{
// jeśli nazwa kończy się na "_on" to domyślnie wyłączyć, żeby się nie nakładało z obiektem "_off"
iVisible = 0;
}
}
else
{
// dla pozostałych modeli blokujemy zapalone światła, które mogą być nieobsługiwane
if (token.compare(0, 8, "Light_On") == 0)
{
// jeśli nazwa zaczyna się od "Light_On" to domyślnie wyłączyć, żeby się nie nakładało z obiektem "Light_Off"
iVisible = 0;
}
}
if (parser.expectToken("anim:")) // Ra: ta informacja by się przydała!
{ // rodzaj animacji
std::string type = parser.getToken<std::string>();
if (type != "false")
{
iFlags |= 0x4000; // jak animacja, to trzeba przechowywać macierz zawsze
if (type == "seconds_jump")
b_Anim = b_aAnim = TAnimType::at_SecondsJump; // sekundy z przeskokiem
else if (type == "minutes_jump")
b_Anim = b_aAnim = TAnimType::at_MinutesJump; // minuty z przeskokiem
else if (type == "hours_jump")
b_Anim = b_aAnim = TAnimType::at_HoursJump; // godziny z przeskokiem
else if (type == "hours24_jump")
b_Anim = b_aAnim = TAnimType::at_Hours24Jump; // godziny z przeskokiem
else if (type == "seconds")
b_Anim = b_aAnim = TAnimType::at_Seconds; // minuty płynnie
else if (type == "minutes")
b_Anim = b_aAnim = TAnimType::at_Minutes; // minuty płynnie
else if (type == "hours")
b_Anim = b_aAnim = TAnimType::at_Hours; // godziny płynnie
else if (type == "hours24")
b_Anim = b_aAnim = TAnimType::at_Hours24; // godziny płynnie
else if (type == "billboard")
b_Anim = b_aAnim = TAnimType::at_Billboard; // obrót w pionie do kamery
else if (type == "wind")
b_Anim = b_aAnim = TAnimType::at_Wind; // ruch pod wpływem wiatru
else if (type == "sky")
b_Anim = b_aAnim = TAnimType::at_Sky; // aniamacja nieba
else if (type == "digital")
b_Anim = b_aAnim = TAnimType::at_Digital; // licznik mechaniczny
else if (type == "digiclk")
b_Anim = b_aAnim = TAnimType::at_DigiClk; // zegar cyfrowy
else
b_Anim = b_aAnim = TAnimType::at_Undefined; // nieznana forma animacji
}
}
if (eType < TP_ROTATOR)
readColor(parser, f4Ambient); // ignoruje token przed
readColor(parser, f4Diffuse);
if (eType < TP_ROTATOR)
{
readColor(parser, f4Specular);
if (pName == "cien")
{
// crude workaround to kill specular on shadow geometry of legacy models
f4Specular = glm::vec4{0.0f, 0.0f, 0.0f, 1.0f};
}
}
parser.ignoreToken(); // zignorowanie nazwy "SelfIllum:"
{
std::string light = parser.getToken<std::string>();
if (light == "true")
fLight = 2.0; // zawsze świeci
else if (light == "false")
fLight = -1.0; // zawsze ciemy
else
fLight = std::stod(light);
};
if (eType == TP_FREESPOTLIGHT)
{
if (!parser.expectToken("nearattenstart:"))
{
Error("Model light parse failure!");
}
std::string discard;
discard.reserve(64);
parser.getTokens(13, false);
parser >> fNearAttenStart >> discard >> fNearAttenEnd >> discard >> bUseNearAtten >> discard >> iFarAttenDecay >> discard >> fFarDecayRadius >> discard >>
fCosFalloffAngle // kąt liczony dla średnicy, a nie promienia
>> discard >> fCosHotspotAngle; // kąt liczony dla średnicy, a nie promienia
// trzeba pobrac do kolejki 2 tokeny
parser.getTokens(2);
if (parser.peek() == "hotspotpower:")
{
float multiplier;
parser >> discard >> multiplier;
WriteLog("Found hotspot power!");
// recaluclate multiplier
diffuseMultiplier = multiplier / 100.f;
// apply color only on nvrenderer
if (Global.NvRenderer)
f4Diffuse *= diffuseMultiplier;
}
else
parser.autoclear(false);
// convert conve parameters if specified in degrees
if (fCosFalloffAngle > 1.0)
{
fCosFalloffAngle = std::cos(glm::radians(0.5f * fCosFalloffAngle));
}
if (fCosHotspotAngle > 1.0)
{
fCosHotspotAngle = std::cos(glm::radians(0.5f * fCosHotspotAngle));
}
m_geometry.vertex_count = 1;
iFlags |= 0x4030; // drawn both in solid (light point) and transparent (light glare) phases
}
else if (eType < TP_ROTATOR)
{
std::string discard;
parser.getTokens(6, false);
parser >> discard >> bWire >> discard >> fWireSize >> discard >> Opacity;
// wymagane jest 0 dla szyb, 100 idzie w nieprzezroczyste
if (Opacity > 1.f)
{
Opacity = std::min(1.f, Opacity * 0.01f);
}
if (Opacity < -1.f)
{
Opacity = std::max(-1.f, Opacity * 0.01f);
}
if (!parser.expectToken("map:"))
Error("Model map parse failure!");
std::string material = parser.getToken<std::string>();
std::replace(material.begin(), material.end(), '\\', '/');
if (material == "none")
{ // rysowanie podanym kolorem
Name_Material("colored");
m_material = GfxRenderer->Fetch_Material(m_materialname);
iFlags |= 0x10; // rysowane w cyklu nieprzezroczystych
}
else if (material.find("replacableskin") != material.npos)
{ // McZapkie-060702: zmienialne skory modelu
m_material = -1;
iFlags |= Opacity < 0.999 ? 1 : 0x10; // zmienna tekstura 1
}
else if (material == "-1")
{
m_material = -1;
iFlags |= Opacity < 0.999 ? 1 : 0x10; // zmienna tekstura 1
}
else if (material == "-2")
{
m_material = -2;
iFlags |= Opacity < 0.999 ? 2 : 0x10; // zmienna tekstura 2
}
else if (material == "-3")
{
m_material = -3;
iFlags |= Opacity < 0.999 ? 4 : 0x10; // zmienna tekstura 3
}
else if (material == "-4")
{
m_material = -4;
iFlags |= Opacity < 0.999 ? 8 : 0x10; // zmienna tekstura 4
}
else
{
Name_Material(material);
/*
if( material.find_first_of( "/" ) == material.npos ) {
// jeśli tylko nazwa pliku, to dawać bieżącą ścieżkę do tekstur
material.insert( 0, Global.asCurrentTexturePath );
}
*/
m_material = GfxRenderer->Fetch_Material(material);
// renderowanie w cyklu przezroczystych tylko jeśli:
// 1. Opacity=0 (przejściowo <1, czy tam <100)
iFlags |= Opacity < 0.999f ? 0x20 : 0x10; // 0x20-przezroczysta, 0x10-nieprzezroczysta
};
}
else if (eType == TP_STARS)
{
m_material = GfxRenderer->Fetch_Material("stars");
iFlags |= 0x10;
}
else
{
iFlags |= 0x10;
}
if (m_material > 0)
{
const IMaterial *mat = GfxRenderer->Material(m_material);
/*
// if material does have opacity set, replace submodel opacity with it
if (mat.opacity)
{
iFlags &= ~0x30;
if (*mat.opacity == 0.0f)
iFlags |= 0x20; // translucent
else
iFlags |= 0x10; // opaque
}
*/
// and same thing with selfillum
if (mat->GetSelfillum())
fLight = *mat->GetSelfillum();
}
// visibility range
std::string discard;
parser.getTokens(5, false);
parser.autoclear(true);
parser >> discard >> fSquareMaxDist >> discard >> fSquareMinDist >> discard;
if (fSquareMaxDist <= 0.0)
{
// 15km to więcej, niż się obecnie wyświetla
fSquareMaxDist = 15000.0;
}
fSquareMaxDist *= fSquareMaxDist;
fSquareMinDist *= fSquareMinDist;
// transformation matrix
fMatrix = new float4x4();
readMatrix(parser, *fMatrix); // wczytanie transform
if (Parent != nullptr)
transformscalestack = Parent->transformscalestack;
if (!fMatrix->IdentityIs())
{
iFlags |= 0x8000; // transform niejedynkowy - trzeba go przechować
// check the scaling
auto const matrix = glm::make_mat4(fMatrix->readArray());
glm::vec3 const scale{glm::length(glm::vec3(glm::column(matrix, 0))), glm::length(glm::vec3(glm::column(matrix, 1))), glm::length(glm::vec3(glm::column(matrix, 2)))};
if (std::abs(scale.x - 1.0f) > 0.01 || std::abs(scale.y - 1.0f) > 0.01 || std::abs(scale.z - 1.0f) > 0.01)
{
ErrorLog("Bad model: transformation matrix for sub-model \"" + pName + "\" imposes geometry scaling (factors: " + to_string(scale) + ")", logtype::model);
m_normalizenormals = std::abs(scale.x - scale.y) < 0.01f && std::abs(scale.y - scale.z) < 0.01f ? rescale : normalize;
}
transformscalestack *= (scale.x + scale.y + scale.z) / 3.0f;
}
if (eType < TP_ROTATOR)
{ // wczytywanie wierzchołków
token = parser.getToken<std::string>();
bool has_userdata = false;
if (token == "userdata:")
{
has_userdata = parser.getToken<bool>();
token = parser.getToken<std::string>();
}
if (token == "numindices:") // optional block, potentially preceeding vertex list
{
m_geometry.index_count = parser.getToken<int>(false);
Indices.resize(m_geometry.index_count);
for (auto idx = 0; idx < m_geometry.index_count; ++idx)
{
Indices[idx] = parser.getToken<unsigned int>(false);
}
token = parser.getToken<std::string>();
}
if (token == "numverts:" || token == "numverts")
{ // normalna lista wierzchołków
/*
// Ra 15-01: to wczytać jako tekst - jeśli pierwszy znak zawiera "*", to
// dalej będzie nazwa wcześniejszego submodelu, z którego należy wziąć wierzchołki
// zapewni to jakąś zgodność wstecz, bo zamiast liczby będzie ciąg, którego
// wartość powinna być uznana jako zerowa
token = parser.getToken<std::string>();
if( token.front() == '*' ) {
// jeśli pierwszy znak jest gwiazdką, poszukać submodelu o nazwie bez tej gwiazdki i wziąć z niego wierzchołki
Error( "Vertices reference not yet supported!" );
}
*/
m_geometry.vertex_count = parser.getToken<int>(false);
if (m_geometry.index_count <= 0 && m_geometry.vertex_count % 3 != 0)
{
m_geometry.vertex_count = 0;
Error("Bad model: incomplete triangle encountered in submodel \"" + pName + "\"");
return {0, 0};
}
if (m_geometry.vertex_count)
{
Vertices.resize(m_geometry.vertex_count);
if (m_geometry.index_count)
{
// indexed geometry chunks are expected to come with pre-generated normals and tangents, to avoid hassle required to generate them manually
auto vertices{std::begin(Vertices)};
for (auto idx = 0; idx < m_geometry.vertex_count; ++idx)
{
auto vertex{vertices + idx};
parser.getTokens(3 + 3 + 2 + 4, false);
parser >> vertex->position.x >> vertex->position.y >> vertex->position.z >> vertex->normal.x >> vertex->normal.y >> vertex->normal.z >> vertex->texture.s >>
vertex->texture.t >> vertex->tangent.x >> vertex->tangent.y >> vertex->tangent.z >> vertex->tangent.w;
}
}
else
{
// legacy geometry, more or less incomplete
// to stay on the safe side we'll potentially need to convert indexed geometry to raw triangle form, cal
auto vertices{std::begin(Vertices)};
int facecount = m_geometry.vertex_count / 3;
std::vector<unsigned int> sg;
sg.resize(facecount); // maski przynależności trójkątów do powierzchni
std::vector<int> wsp;
wsp.resize(m_geometry.vertex_count); // z którego wierzchołka kopiować wektor normalny
int maska = 0;
int vertexidx = 0; // used to keep track of vertex indices in source file
for (auto idx = 0; idx < m_geometry.vertex_count; ++idx)
{
++vertexidx;
// Ra: z konwersją na układ scenerii - będzie wydajniejsze wyświetlanie
wsp[idx] = -1; // wektory normalne nie są policzone dla tego wierzchołka
if (idx % 3 == 0)
{
// jeśli będzie maska -1, to dalej będą wierzchołki z wektorami normalnymi, podanymi jawnie
maska = parser.getToken<int>(false); // maska powierzchni trójkąta
// dla maski -1 będzie 0, czyli nie ma wspólnych wektorów normalnych
sg[idx / 3] = maska == -1 ? 0 : maska;
}
auto vertex{vertices + idx};
parser.getTokens(3, false);
parser >> vertex->position.x >> vertex->position.y >> vertex->position.z;
if (maska == -1)
{ // jeśli wektory normalne podane jawnie
parser.getTokens(3, false);
parser >> vertex->normal.x >> vertex->normal.y >> vertex->normal.z;
if (glm::length2(vertex->normal) > 0.0f)
{
vertex->normal = glm::normalize(vertex->normal);
}
else
{
WriteLog("Bad model: zero length normal vector specified in submodel \"" + pName + "\", vertex " + std::to_string(idx), logtype::model);
}
wsp[idx] = idx; // wektory normalne "są już policzone"
}
parser.getTokens(2, false);
parser >> vertex->texture.s >> vertex->texture.t;
if (idx % 3 == 2)
{
// jeżeli wczytano 3 punkty
if (true == degenerate(vertex->position, (vertex - 1)->position, (vertex - 2)->position))
{
// jeżeli punkty się nakładają na siebie
--facecount; // o jeden trójkąt mniej
m_geometry.vertex_count -= 3; // czyli o 3 wierzchołki
idx -= 3; // wczytanie kolejnego w to miejsce
WriteLog("Bad model: degenerated triangle ignored in: \"" + pName + "\", vertices " + std::to_string(vertexidx - 2) + "-" + std::to_string(vertexidx), logtype::model);
}
if (idx > 0)
{
// jeśli pierwszy trójkąt będzie zdegenerowany, to zostanie usunięty i nie ma co sprawdzać
// length2 is better than length for comparing because it does not require sqrt function
if (glm::length2(vertex->position - (vertex - 1)->position) > sq(1000.0) || glm::length2((vertex - 1)->position - (vertex - 2)->position) > sq(1000.0) ||
glm::length2((vertex - 2)->position - vertex->position) > sq(1000.0))
{
// jeżeli są dalej niż 2km od siebie //Ra 15-01:
// obiekt wstawiany nie powinien być większy niż 300m (trójkąty terenu w E3D mogą mieć 1.5km)
--facecount; // o jeden trójkąt mniej
m_geometry.vertex_count -= 3; // czyli o 3 wierzchołki
idx -= 3; // wczytanie kolejnego w to miejsce
WriteLog("Bad model: too large triangle ignored in: \"" + pName + "\"", logtype::model);
}
}
}
}
std::vector<glm::vec3> facenormals;
facenormals.reserve(facecount);
for (int i = 0; i < facecount; ++i)
{
// pętla po trójkątach - będzie szybciej, jak wstępnie przeliczymy normalne trójkątów
auto const vertex{vertices + i * 3};
auto facenormal = glm::cross(vertex->position - (vertex + 1)->position, vertex->position - (vertex + 2)->position);
facenormals.emplace_back(glm::length2(facenormal) > 0.0f ? glm::normalize(facenormal) : glm::vec3());
}
glm::vec3 vertexnormal; // roboczy wektor normalny
for (int vertexidx = 0; vertexidx < m_geometry.vertex_count; ++vertexidx)
{
// pętla po wierzchołkach trójkątów
auto vertex{vertices + vertexidx};
if (wsp[vertexidx] >= 0)
{
// jeśli już był liczony wektor normalny z użyciem tego wierzchołka to wystarczy skopiować policzony wcześniej
vertex->normal = (vertices + wsp[vertexidx])->normal;
}
else
{
// inaczej musimy dopiero policzyć
auto const faceidx = vertexidx / 3; // numer trójkąta
vertexnormal = glm::vec3(); // liczenie zaczynamy od zera
auto adjacenvertextidx = vertexidx; // zaczynamy dodawanie wektorów normalnych od własnego
while (adjacenvertextidx >= 0)
{
// sumowanie z wektorem normalnym sąsiada (włącznie ze sobą)
if (glm::dot(vertexnormal, facenormals[adjacenvertextidx / 3]) > -0.99f)
{
wsp[adjacenvertextidx] = vertexidx; // informacja, że w tym wierzchołku jest już policzony wektor normalny
vertexnormal += facenormals[adjacenvertextidx / 3];
}
/*
else {
ErrorLog( "Bad model: opposite normals in the same smoothing group, check sub-model \"" + pName + "\" for two-sided faces and/or scaling", logtype::model );
}
*/
// i szukanie od kolejnego trójkąta
adjacenvertextidx = SeekFaceNormal(sg, adjacenvertextidx / 3 + 1, sg[faceidx], vertex->position, Vertices);
}
// Ra 15-01: należało by jeszcze uwzględnić skalowanie wprowadzane przez transformy, aby normalne po przeskalowaniu były jednostkowe
if (glm::length2(vertexnormal) == 0.0f)
{
WriteLog("Bad model: zero length normal vector generated for sub-model \"" + pName + "\"", logtype::model);
}
vertex->normal = glm::length2(vertexnormal) > 0.0f ? glm::normalize(vertexnormal) : facenormals[vertexidx / 3]; // przepisanie do wierzchołka trójkąta
}
}
Vertices.resize(m_geometry.vertex_count); // in case we had some degenerate triangles along the way
gfx::calculate_indices(Indices, Vertices, Userdata, transformscalestack);
gfx::calculate_tangents(Vertices, Indices, GL_TRIANGLES);
// update values potentially changed by indexing
m_geometry.index_count = Indices.size();
m_geometry.vertex_count = Vertices.size();
}
if (has_userdata)
{
Userdata.resize(m_geometry.vertex_count);
auto userdata{std::begin(Userdata)};
for (auto idx = 0; idx < m_geometry.vertex_count; ++idx)
{
auto vertex{userdata + idx};
UserdataParse<float>(parser, *vertex);
}
}
}
else // gdy brak wierzchołków
{
eType = TP_ROTATOR; // submodel pomocniczy, ma tylko macierz przekształcenia
// dla formalności
m_geometry.vertex_offset = 0;
m_geometry.vertex_count = 0;
}
} // obsługa submodelu z własną listą wierzchołków
}
else if (eType == TP_STARS)
{ // punkty świecące dookólnie - składnia jak
// dla smt_Mesh
std::string discard;
parser.getTokens(2, false);
parser >> discard >> m_geometry.vertex_count;
Vertices.resize(m_geometry.vertex_count);
int idx;
unsigned int color;
auto vertices{std::begin(Vertices)};
for (idx = 0; idx < m_geometry.vertex_count; ++idx)
{
if (idx % 3 == 0)
{
parser.ignoreToken(); // maska powierzchni trójkąta
}
auto vertex{vertices + idx};
parser.getTokens(5, false);
parser >> vertex->position.x >> vertex->position.y >> vertex->position.z >> color // zakodowany kolor
>> discard;
vertex->normal = {(color & 0xff) / 255.0f, // R
(color >> 8 & 0xff) / 255.0f, // G
(color >> 16 & 0xff) / 255.0f}; // B
}
}
else if (eType == TP_FREESPOTLIGHT)
{
// single light points only have single data point, duh
Vertices.emplace_back();
m_geometry.vertex_count = 1;
}
// Visible=true; //się potem wyłączy w razie potrzeby
// iFlags|=0x0200; //wczytano z pliku tekstowego (jest właścicielem tablic)
if (m_geometry.vertex_count < 1)
iFlags &= ~0x3F; // cykl renderowania uzależniony od potomnych
return {m_geometry.index_count, m_geometry.vertex_count}; // do określenia wielkości VBO
};
/*
int TSubModel::TriangleAdd(TModel3d *m, material_handle tex, int tri)
{ // dodanie trójkątów do submodelu, używane przy tworzeniu E3D terenu
TSubModel *s = this;
while (s ? (s->m_material != tex) : false)
{ // szukanie submodelu o danej teksturze
if (s == this)
s = Child;
else
s = s->Next;
}
if (!s)
{
if (m_material <= 0)
s = this; // użycie głównego
else
{ // dodanie nowego submodelu do listy potomnych
s = new TSubModel();
m->AddTo(this, s);
}
s->Name_Material(GfxRenderer->Material(tex).name);
s->m_material = tex;
s->eType = GL_TRIANGLES;
}
if (s->iNumVerts < 0)
s->iNumVerts = tri; // bo na początku jest -1, czyli że nie wiadomo
else
s->iNumVerts += tri; // aktualizacja ilości wierzchołków
return s->iNumVerts - tri; // zwraca pozycję tych trójkątów w submodelu
};
*/
/*
basic_vertex *TSubModel::TrianglePtr(int tex, int pos, glm::vec3 const &Ambient, glm::vec3 const &Diffuse, glm::vec3 const &Specular )
{ // zwraca wskaźnik do wypełnienia tabeli wierzchołków, używane przy tworzeniu E3D terenu
TSubModel *s = this;
while (s ? s->TextureID != tex : false)
{ // szukanie submodelu o danej teksturze
if (s == this)
s = Child;
else
s = s->Next;
}
if (!s)
return NULL; // coś nie tak poszło
if (!s->Vertices)
{ // utworznie tabeli trójkątów
s->Vertices = new basic_vertex[s->iNumVerts];
s->iVboPtr = iInstance; // pozycja submodelu w tabeli wierzchołków
iInstance += s->iNumVerts; // pozycja dla następnego
}
s->ColorsSet(Ambient, Diffuse, Specular); // ustawienie kolorów świateł
return s->Vertices + pos; // wskaźnik na wolne miejsce w tabeli wierzchołków
};
*/
void TSubModel::InitialRotate(bool doit)
{ // konwersja układu współrzędnych na zgodny ze scenerią
if (iFlags & 0xC000) // jeśli jest animacja albo niejednostkowy transform
{ // niejednostkowy transform jest mnożony i wystarczy zabawy
if (doit)
{
// obrót lewostronny
if (!fMatrix)
{
// macierzy może nie być w dodanym "bananie"
fMatrix = new float4x4(); // tworzy macierz o przypadkowej zawartości
fMatrix->Identity(); // a zaczynamy obracanie od jednostkowej
}
iFlags |= 0x8000; // po obróceniu będzie raczej niejedynkowy matrix
fMatrix->InitialRotate(); // zmiana znaku X oraz zamiana Y i Z
if (fMatrix->IdentityIs())
iFlags &= ~0x8000; // jednak jednostkowa po obróceniu
}
if (Child)
{
// potomnych nie obracamy już, tylko ewentualnie optymalizujemy
Child->InitialRotate(false);
}
else if (Global.iConvertModels & 2)
{
// optymalizacja jest opcjonalna
if ((iFlags & 0xC000) == 0x8000 // o ile nie ma animacji
&& false == is_emitter()) // don't optimize smoke emitter attachment points
{ // jak nie ma potomnych, można wymnożyć przez transform i wyjedynkować go
float4x4 *mat = GetMatrix(); // transform submodelu
if (false == Vertices.empty())
{
for (auto &vertex : Vertices)
{
vertex.position = *mat * vertex.position;
}
// zerujemy przesunięcie przed obracaniem normalnych
(*mat)(3)[0] = (*mat)(3)[1] = (*mat)(3)[2] = 0.0;
if (eType != TP_STARS)
{
// gwiazdki mają kolory zamiast normalnych, to ich wtedy nie ruszamy
for (auto &vertex : Vertices)
{
vertex.normal = *mat * vertex.normal;
vertex.tangent.xyz = *mat * vertex.tangent.xyz;
}
}
}
mat->Identity(); // jedynkowanie transformu po przeliczeniu wierzchołków
iFlags &= ~0x8000; // transform jedynkowy
}
}
}
else // jak jest jednostkowy i nie ma animacji
if (doit)
{ // jeśli jest jednostkowy transform, to przeliczamy
// wierzchołki, a mnożenie podajemy dalej
for (auto &vertex : Vertices)
{
glm::mat4 vertexTransform{{-1.f, 0.f, 0.f, 0.f}, {0.f, 0.f, 1.f, 0.f}, {0.f, 1.f, 0.f, 0.f}, {0.f, 0.f, 0.f, 1.f}};
vertex.position = vertexTransform * glm::vec4(vertex.position, 1.f);
// wektory normalne również trzeba przekształcić, bo się źle oświetlają
if (eType != TP_STARS)
{
glm::mat3 normalTransform{{-1.f, 0.f, 0.f}, {0.f, 0.f, 1.f}, {0.f, 1.f, 0.f}};
// gwiazdki mają kolory zamiast normalnych, to // ich wtedy nie ruszamy
vertex.normal = normalTransform * vertex.normal;
vertex.tangent.xyz = normalTransform * vertex.tangent.xyz;
}
}
if (Child)
Child->InitialRotate(doit); // potomne ewentualnie obrócimy
}
if (Next)
Next->InitialRotate(doit);
};
// text display (TP_TEXT): returns sub-models of the characters to draw for provided text, in drawing order.
// a character is matched with the first character of a child sub-model name. both the text and the names can be
// encoded either in utf-8 or in windows-1250, so the legacy (ansi) scenery and model files work along the utf-8 ones
std::vector<TSubModel *> const &TSubModel::text_letters(std::string const &Text)
{
// the sequence is prepared once for each text the display shows. the texts of the model instances don't change,
// so drawing a display afterwards costs a single lookup, however many instances and passes take turns
auto const prepared{m_textlayouts.find(Text)};
if (prepared != m_textlayouts.end())
{
return prepared->second;
}
std::u32string characters;
if (false == m_lettersready)
{
for (auto *letter = Child; letter != nullptr; letter = letter->Next)
{
if (letter->pName.empty())
{
continue;
}
if (false == utf8_to_utf32(letter->pName, characters))
{
win1250_to_utf32(letter->pName, characters);
}
if (characters.front() != 0)
{
m_letters[characters.front()] = letter;
}
}
m_lettersready = true;
}
// the text is taken for utf-8 if it's valid as such, and for windows-1250 otherwise. a short ansi text can pass
// for utf-8 by accident (two upper case accented letters in a row are enough for this to happen),
// so if both readings are possible the one which finds more of its characters in the model wins
auto const known = [this](std::u32string const &Characters) {
return std::ranges::count_if(Characters, [this](char32_t const Character) { return m_letters.contains(Character); });
};
std::u32string ansi;
win1250_to_utf32(Text, ansi);
if (false == utf8_to_utf32(Text, characters) || known(ansi) > known(characters))
{
characters = ansi;
}
auto &textletters{m_textlayouts[Text]};
// NOTE: the first character of the text isn't displayed. the displays always worked this way, and the existing
// content relies on it
for (std::size_t idx = 1; idx < characters.size(); ++idx)
{
auto const lookup{m_letters.find(characters[idx])};
if (lookup != m_letters.end())
{
textletters.emplace_back(lookup->second);
}
}
return textletters;
}
void TSubModel::ChildAdd(TSubModel *SubModel)
{ // dodanie submodelu potemnego (uzależnionego)
// Ra: zmiana kolejności, żeby kolejne móc renderować po aktualnym (było
// przed)
if (SubModel)
SubModel->NextAdd(Child); // Ra: zmiana kolejności renderowania
Child = SubModel;
};
void TSubModel::NextAdd(TSubModel *SubModel)
{ // dodanie submodelu kolejnego (wspólny przodek)
if (Next)
Next->NextAdd(SubModel);
else
Next = SubModel;
};
int TSubModel::count_siblings()
{
auto siblingcount{0};
auto *sibling{Next};
while (sibling != nullptr)
{
++siblingcount;
sibling = sibling->Next;
}
return siblingcount;
}
int TSubModel::count_children()
{
return Child == nullptr ? 0 : 1 + Child->count_siblings();
}
// locates submodel mapped with replacable -4
std::tuple<TSubModel *, bool> TSubModel::find_replacable4()
{
if (m_material == -4)
{
return std::make_tuple(this, fLight != -1.0);
}
if (Next != nullptr)
{
auto lookup{Next->find_replacable4()};
if (std::get<TSubModel *>(lookup) != nullptr)
{
return lookup;
}
}
if (Child != nullptr)
{
auto lookup{Child->find_replacable4()};
if (std::get<TSubModel *>(lookup) != nullptr)
{
return lookup;
}
}
return std::make_tuple(nullptr, false);
}
// locates particle emitter submodels and adds them to provided list
void TSubModel::find_smoke_sources(nameoffset_sequence &Sourcelist) const
{
auto const name{ToLower(pName)};
if (eType == TP_ROTATOR && pName.find("smokesource_") == 0)
{
Sourcelist.emplace_back(pName, offset());
}
if (Next != nullptr)
{
Next->find_smoke_sources(Sourcelist);
}
if (Child != nullptr)
{
Child->find_smoke_sources(Sourcelist);
}
}
uint32_t TSubModel::FlagsCheck()
{ // analiza koniecznych zmian pomiędzy submodelami
// samo pomijanie glBindTexture() nie poprawi wydajności
// ale można sprawdzić, czy można w ogóle pominąć kod do tekstur (sprawdzanie
// replaceskin)
m_rotation_init_done = true;
uint32_t i = 0;
if (Child)
{ // Child jest renderowany po danym submodelu
if (Child->m_material) // o ile ma teksturę
if (Child->m_material != m_material) // i jest ona inna niż rodzica
Child->iFlags |= 0x80; // to trzeba sprawdzać, jak z teksturami jest
i = Child->FlagsCheck();
iFlags |= 0x00FF0000 & (i << 16 | i | i >> 8); // potomny, rodzeństwo i dzieci
if (eType == TP_TEXT)
{ // wyłączenie renderowania Next dla znaków
// wyświetlacza tekstowego
TSubModel *p = Child;
while (p)
{
p->iFlags &= 0xC0FFFFFF;
p = p->Next;
}
}
}
if (Next)
{ // Next jest renderowany po danym submodelu (kolejność odwrócona
// po wczytaniu T3D)
if (m_material) // o ile dany ma teksturę
if (m_material != Next->m_material || i & 0x00800000) // a ma inną albo dzieci zmieniają
iFlags |= 0x80; // to dany submodel musi sobie ją ustawiać
i = Next->FlagsCheck();
iFlags |= 0xFF000000 & (i << 24 | i << 8 | i); // następny, kolejne i ich dzieci
// tekstury nie ustawiamy tylko wtedy, gdy jest taka sama jak Next i jego
// dzieci nie zmieniają
}
return iFlags;
};
void TSubModel::SetRotate(float3 vNewRotateAxis, float fNewAngle)
{ // obrócenie submodelu wg podanej
// osi (np. wskazówki w kabinie)
v_RotateAxis = vNewRotateAxis;
f_Angle = fNewAngle;
if (fNewAngle != 0.0)
{
b_Anim = TAnimType::at_Rotate;
b_aAnim = TAnimType::at_Rotate;
}
iAnimOwner = iInstance; // zapamiętanie czyja jest animacja
}
void TSubModel::SetRotateXYZ(float3 vNewAngles)
{ // obrócenie submodelu o
// podane kąty wokół osi
// lokalnego układu
v_Angles = vNewAngles;
b_Anim = TAnimType::at_RotateXYZ;
b_aAnim = TAnimType::at_RotateXYZ;
iAnimOwner = iInstance; // zapamiętanie czyja jest animacja
}
void TSubModel::SetRotateXYZ(glm::vec3 vNewAngles)
{ // obrócenie submodelu o
// podane kąty wokół osi
// lokalnego układu
v_Angles.x = vNewAngles.x;
v_Angles.y = vNewAngles.y;
v_Angles.z = vNewAngles.z;
b_Anim = TAnimType::at_RotateXYZ;
b_aAnim = TAnimType::at_RotateXYZ;
iAnimOwner = iInstance; // zapamiętanie czyja jest animacja
}
void TSubModel::SetTranslate(float3 vNewTransVector)
{ // przesunięcie submodelu (np. w kabinie)
v_TransVector = vNewTransVector;
b_Anim = TAnimType::at_Translate;
b_aAnim = TAnimType::at_Translate;
iAnimOwner = iInstance; // zapamiętanie czyja jest animacja
}
void TSubModel::SetTranslate(glm::vec3 vNewTransVector)
{ // przesunięcie submodelu (np. w kabinie)
v_TransVector.x = vNewTransVector.x;
v_TransVector.y = vNewTransVector.y;
v_TransVector.z = vNewTransVector.z;
b_Anim = TAnimType::at_Translate;
b_aAnim = TAnimType::at_Translate;
iAnimOwner = iInstance; // zapamiętanie czyja jest animacja
}
void TSubModel::SetRotateIK1(float3 vNewAngles)
{ // obrócenie submodelu o
// podane kąty wokół osi
// lokalnego układu
v_Angles = vNewAngles;
iAnimOwner = iInstance; // zapamiętanie czyja jest animacja
}
struct ToLower
{
char operator()(char input)
{
return tolower(input);
}
};
TSubModel *TSubModel::GetFromName(std::string const &search, bool i)
{
TSubModel *result;
// std::transform(search.begin(),search.end(),search.begin(),ToLower());
// search=search.LowerCase();
// AnsiString name=AnsiString();
std::string search_lc = search;
if (i)
std::transform(search_lc.begin(), search_lc.end(), search_lc.begin(), ::tolower);
std::string pName_lc = pName;
if (i)
std::transform(pName_lc.begin(), pName_lc.end(), pName_lc.begin(), ::tolower);
if (pName.size() && search.size())
if (pName_lc == search_lc)
return this;
if (Next)
{
result = Next->GetFromName(search);
if (result)
return result;
}
if (Child)
{
result = Child->GetFromName(search);
if (result)
return result;
}
return nullptr;
};
// WORD hbIndices[18]={3,0,1,5,4,2,1,0,4,1,5,3,2,3,5,2,4,0};
void TSubModel::RaAnimation(TAnimType a)
{
glm::mat4 m = OpenGLMatrices.data(GL_MODELVIEW);
RaAnimation(m, a);
glLoadMatrixf(glm::value_ptr(m));
}
void TSubModel::RaAnimation(glm::mat4 &m, TAnimType a)
{ // wykonanie animacji niezależnie od renderowania
switch (a)
{ // korekcja położenia, jeśli submodel jest animowany
case TAnimType::at_Translate: // Ra: było "true"
if (iAnimOwner != iInstance)
break; // cudza animacja
m = glm::translate(m, glm::vec3(v_TransVector.x, v_TransVector.y, v_TransVector.z));
break;
case TAnimType::at_Rotate: // Ra: było "true"
if (iAnimOwner != iInstance)
break; // cudza animacja
m = glm::rotate(m, glm::radians(f_Angle), glm::vec3(v_RotateAxis.x, v_RotateAxis.y, v_RotateAxis.z));
break;
case TAnimType::at_RotateXYZ:
if (iAnimOwner != iInstance)
break; // cudza animacja
m = glm::translate(m, glm::vec3(v_TransVector.x, v_TransVector.y, v_TransVector.z));
m = glm::rotate(m, glm::radians(v_Angles.x), glm::vec3(1.0f, 0.0f, 0.0f));
m = glm::rotate(m, glm::radians(v_Angles.y), glm::vec3(0.0f, 1.0f, 0.0f));
m = glm::rotate(m, glm::radians(v_Angles.z), glm::vec3(0.0f, 0.0f, 1.0f));
break;
case TAnimType::at_SecondsJump: // sekundy z przeskokiem
m = glm::rotate(m, glm::radians(simulation::Time.data().wSecond * 6.0f), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_MinutesJump: // minuty z przeskokiem
m = glm::rotate(m, glm::radians(simulation::Time.data().wMinute * 6.0f), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_HoursJump: // godziny skokowo 12h/360°
m = glm::rotate(m, glm::radians(simulation::Time.data().wHour * 30.0f * 0.5f), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Hours24Jump: // godziny skokowo 24h/360°
m = glm::rotate(m, glm::radians(simulation::Time.data().wHour * 15.0f * 0.25f), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Seconds: // sekundy płynnie
m = glm::rotate(m, glm::radians((float)simulation::Time.second() * 6.0f), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Minutes: // minuty płynnie
m = glm::rotate(m, glm::radians(simulation::Time.data().wMinute * 6.0f + (float)simulation::Time.second() * 0.1f), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Hours: // godziny płynnie 12h/360°
// glRotatef(GlobalTime->hh*30.0+GlobalTime->mm*0.5+GlobalTime->mr/120.0,0.0,1.0,0.0);
m = glm::rotate(m, glm::radians(2.0f * (float)Global.fTimeAngleDeg), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Hours24: // godziny płynnie 24h/360°
// glRotatef(GlobalTime->hh*15.0+GlobalTime->mm*0.25+GlobalTime->mr/240.0,0.0,1.0,0.0);
m = glm::rotate(m, glm::radians((float)Global.fTimeAngleDeg), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Billboard: // obrót w pionie do kamery
{
glm::mat4 mat = glm::make_mat4(OpenGLMatrices.data_array(GL_MODELVIEW));
float3 gdzie = float3(mat[3][0], mat[3][1], mat[3][2]); // początek układu współrzędnych submodelu względem kamery
m = glm::mat4(1.0f);
m = glm::translate(m, glm::vec3(gdzie.x, gdzie.y, gdzie.z)); // początek układu zostaje bez zmian
m = glm::rotate(m, (float)atan2(gdzie.x, gdzie.z), glm::vec3(0.0f, 1.0f, 0.0f)); // jedynie obracamy w pionie o kąt
}
break;
case TAnimType::at_Wind: // ruch pod wpływem wiatru (wiatr będziemy liczyć potem...)
m = glm::rotate(m, glm::radians(1.5f * (float)sin(M_PI * simulation::Time.second() / 6.0)), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_Sky: // animacja nieba
m = glm::rotate(m, glm::radians((float)Global.fLatitudeDeg), glm::vec3(0.0f, 1.0f, 0.0f)); // ustawienie osi OY na północ
m = glm::rotate(m, glm::radians((float)-fmod(Global.fTimeAngleDeg, 360.0)), glm::vec3(0.0f, 1.0f, 0.0f));
break;
case TAnimType::at_DigiClk: // animacja zegara cyfrowego
{ // ustawienie animacji w submodelach potomnych
TSubModel *sm = ChildGet();
do
{ // pętla po submodelach potomnych i obracanie ich o kąt zależy od czasu
if (sm->pName.size())
{
// musi mieć niepustą nazwę
if (sm->pName[0] >= '0' && sm->pName[0] <= '5')
{
// zegarek ma 6 cyfr maksymalnie
sm->SetRotate(float3(0, 1, 0), -Global.fClockAngleDeg[sm->pName[0] - '0']);
}
}
sm = sm->NextGet();
} while (sm);
}
break;
}
if (mAnimMatrix) // można by to dać np. do at_Translate
{
m *= glm::make_mat4(mAnimMatrix->e);
mAnimMatrix.reset(); // jak animator będzie potrzebował, to ustawi ponownie
}
};
//---------------------------------------------------------------------------
void TSubModel::serialize_geometry(std::ostream &Output, bool const Packed, bool const Indexed, bool const UserData) const
{
if (Child)
{
Child->serialize_geometry(Output, Packed, Indexed, UserData);
}
if (m_geometry.handle != null_handle)
{
if (Packed)
{
auto vertices = GfxRenderer->Vertices(m_geometry.handle);
auto userdatas = GfxRenderer->UserData(m_geometry.handle);
bool has_userdata = !userdatas.empty();
for (int i = 0; i < vertices.size(); ++i)
{
vertices[i].serialize_packed(Output, Indexed);
if (UserData)
{
if (has_userdata)
userdatas[i].serialize_packed(Output);
else
gfx::vertex_userdata{}.serialize_packed(Output);
}
}
}
else
{
auto vertices = GfxRenderer->Vertices(m_geometry.handle);
auto userdatas = GfxRenderer->UserData(m_geometry.handle);
bool has_userdata = !userdatas.empty();
for (int i = 0; i < vertices.size(); ++i)
{
vertices[i].serialize(Output, Indexed);
if (UserData)
{
if (has_userdata)
userdatas[i].serialize(Output);
else
gfx::vertex_userdata{}.serialize(Output);
}
}
}
}
if (Next)
{
Next->serialize_geometry(Output, Packed, Indexed, UserData);
}
};
int TSubModel::index_size() const
{
int size{1};
if (Child)
{
size = std::max(size, Child->index_size());
}
if (size < 4 && m_geometry.handle != null_handle)
{
auto const indexcount{GfxRenderer->Indices(m_geometry.handle).size()};
size = std::max(size, indexcount >= 1 << 16 ? 4 : indexcount >= 1 << 8 ? 2 : 1);
}
if (size < 4 && Next)
{
size = std::max(size, Next->index_size());
}
return size;
}
void TSubModel::serialize_indices(std::ostream &Output, int const Size) const
{
if (Child)
{
Child->serialize_indices(Output, Size);
}
if (m_geometry.handle != null_handle)
{
switch (Size)
{
case 1:
{
for (auto const &index : GfxRenderer->Indices(m_geometry.handle))
{
sn_utils::s_uint8(Output, index);
}
break;
}
case 2:
{
for (auto const &index : GfxRenderer->Indices(m_geometry.handle))
{
sn_utils::ls_uint16(Output, index);
}
break;
}
case 4:
{
for (auto const &index : GfxRenderer->Indices(m_geometry.handle))
{
sn_utils::ls_uint32(Output, index);
}
break;
}
default:
{
break;
}
}
}
if (Next)
{
Next->serialize_indices(Output, Size);
}
};
void TSubModel::create_geometry(std::size_t &Indexoffset, std::size_t &Vertexoffset, gfx::geometrybank_handle const &Bank)
{
// data offset is used to determine data offset of each submodel into single shared geometry bank
// (the offsets are part of legacy system which we now need to work around for backward compatibility)
if (Child)
{
Child->create_geometry(Indexoffset, Vertexoffset, Bank);
}
if (false == Vertices.empty())
{
m_geometry.index_offset = static_cast<int>(Indexoffset);
Indexoffset += Indices.size();
m_geometry.vertex_offset = static_cast<int>(Vertexoffset);
Vertexoffset += Vertices.size();
// conveniently all relevant custom node types use GL_POINTS, or we'd have to determine the type on individual basis
auto type = eType < TP_ROTATOR ? eType : GL_POINTS;
m_geometry.handle = GfxRenderer->Insert(Indices, Vertices, Userdata, Bank, type);
}
if (m_geometry.handle != 0)
{
// calculate bounding radius while we're at it
float squaredradius{};
// if this happens to be root node it may already have non-squared radius of the largest child
// since we're comparing squared radii, we need to square it back for correct results
m_boundingradius *= m_boundingradius;
auto const submodeloffset{offset(std::numeric_limits<float>::max())};
for (auto const &vertex : GfxRenderer->Vertices(m_geometry.handle))
{
squaredradius = glm::length2(submodeloffset + vertex.position);
if (squaredradius > m_boundingradius)
{
m_boundingradius = squaredradius;
}
}
if (m_boundingradius > 0.f)
{
m_boundingradius = std::sqrt(m_boundingradius);
}
// adjust overall radius if needed
// NOTE: the method to access root submodel is... less than ideal
auto *root{this};
while (root->Parent != nullptr)
{
root = root->Parent;
}
root->m_boundingradius = std::max(root->m_boundingradius, m_boundingradius);
}
if (Next)
{
Next->create_geometry(Indexoffset, Vertexoffset, Bank);
}
}
void TSubModel::ColorsSet(glm::vec3 const &Ambient, glm::vec3 const &Diffuse, glm::vec3 const &Specular)
{ // ustawienie kolorów dla modelu terenu
f4Ambient = glm::vec4(Ambient, 1.0f);
f4Diffuse = glm::vec4(Diffuse, 1.0f);
f4Specular = glm::vec4(Specular, 1.0f);
/*
int i;
if (a)
for (i = 0; i < 4; ++i)
f4Ambient[i] = a[i] / 255.0;
if (d)
for (i = 0; i < 4; ++i)
f4Diffuse[i] = d[i] / 255.0;
if (s)
for (i = 0; i < 4; ++i)
f4Specular[i] = s[i] / 255.0;
*/
};
bool TSubModel::is_emitter() const
{
return eType == TP_ROTATOR && ToLower(pName).find("smokesource_") == 0;
}
// pobranie transformacji względem wstawienia modelu
void TSubModel::ParentMatrix(float4x4 *m) const
{
m->Identity();
float4x4 submodelmatrix;
auto *submodel = this;
do
{
// for given step in hierarchy there can be custom transformation matrix, or no transformation
// retrieve it...
submodelmatrix.Identity();
if (submodel->GetMatrix())
{
submodelmatrix = float4x4(*submodel->GetMatrix());
}
// ...potentially adjust transformations of the root matrix if the model wasn't yet initialized...
if (submodel->Parent == nullptr && false == submodel->m_rotation_init_done)
{
// dla ostatniego może być potrzebny dodatkowy obrót, jeśli wczytano z T3D, a nie obrócono jeszcze
submodelmatrix.InitialRotate();
}
// ...combine the transformations...
*m = submodelmatrix * *m;
// ...and move up the transformation chain for the iteration...
submodel = submodel->Parent;
// ... until we hit the root
} while (submodel != nullptr);
/*
if( fMatrix != nullptr ) {
// skopiowanie, bo będziemy mnożyć
*m = float4x4( *fMatrix );
}
else {
m->Identity();
}
auto *sm = this;
while (sm->Parent)
{ // przenieść tę funkcję do modelu
if (sm->Parent->GetMatrix())
*m = *sm->Parent->GetMatrix() * *m;
sm = sm->Parent;
}
*/
};
void TSubModel::ReplaceMatrix(const glm::mat4 &mat)
{
*fMatrix = float4x4(glm::value_ptr(mat));
}
void TSubModel::ReplaceMaterial(const std::string &name)
{
m_material = GfxRenderer->Fetch_Material(name);
}
// obliczenie maksymalnej wysokości, na początek ślizgu w pantografie
float TSubModel::MaxY(float4x4 const &m)
{
// tylko dla trójkątów liczymy
if (eType != GL_TRIANGLES)
{
return 0;
}
auto maxy{0.0f};
// binary and text models invoke this function at different stages, either after or before geometry data was sent to the geometry manager
if (m_geometry.handle != null_handle)
{
for (auto const &vertex : GfxRenderer->Vertices(m_geometry.handle))
{
maxy = std::max(maxy, m[0][1] * vertex.position.x + m[1][1] * vertex.position.y + m[2][1] * vertex.position.z + m[3][1]);
}
}
else if (false == Vertices.empty())
{
for (auto const &vertex : Vertices)
{
maxy = std::max(maxy, m[0][1] * vertex.position.x + m[1][1] * vertex.position.y + m[2][1] * vertex.position.z + m[3][1]);
}
}
return maxy;
};
//---------------------------------------------------------------------------
TModel3d::~TModel3d()
{
if (iFlags & 0x0200)
{
// wczytany z pliku tekstowego, submodele sprzątają same
SafeDelete(Root);
}
else
{
// wczytano z pliku binarnego (jest właścicielem tablic)
SafeDeleteArray(Root); // submodele się usuną rekurencyjnie
}
};
TSubModel *TModel3d::AddToNamed(const char *Name, TSubModel *SubModel)
{
TSubModel *sm = Name ? GetFromName(Name) : nullptr;
if (sm == nullptr && Name != nullptr && std::strcmp(Name, "none") != 0)
{
ErrorLog("Bad model: parent for sub-model \"" + SubModel->pName + "\" doesn't exist or is located later in the model data", logtype::model);
}
AddTo(sm, SubModel); // szukanie nadrzędnego
return sm; // zwracamy wskaźnik do nadrzędnego submodelu
};
// jedyny poprawny sposób dodawania submodeli, inaczej mogą zginąć przy zapisie E3D
void TModel3d::AddTo(TSubModel *tmp, TSubModel *SubModel)
{
if (tmp)
{
// jeśli znaleziony, podłączamy mu jako potomny
tmp->ChildAdd(SubModel);
}
else
{ // jeśli nie znaleziony, podczepiamy do łańcucha głównego
SubModel->NextAdd(Root); // Ra: zmiana kolejności renderowania wymusza zmianę tu
Root = SubModel;
}
++iSubModelsCount; // teraz jest o 1 submodel więcej
iFlags |= 0x0200; // submodele są oddzielne
};
TSubModel *TModel3d::GetFromName(std::string const &Name) const
{ // wyszukanie submodelu po nazwie
if (Name.empty())
return Root; // potrzebne do terenu z E3D
if (iFlags & 0x0200) // wczytany z pliku tekstowego, wyszukiwanie rekurencyjne
return Root ? Root->GetFromName(Name) : nullptr;
else // wczytano z pliku binarnego, można wyszukać iteracyjnie
{
// for (int i=0;i<iSubModelsCount;++i)
return Root ? Root->GetFromName(Name) : nullptr;
}
};
// locates particle source submodels and stores them on internal list
nameoffset_sequence const &TModel3d::find_smoke_sources()
{
m_smokesources.clear();
if (Root != nullptr)
{
Root->find_smoke_sources(m_smokesources);
}
return smoke_sources();
}
// returns offset vector from root
glm::vec3 TSubModel::offset(float const Geometrytestoffsetthreshold) const
{
float4x4 parentmatrix;
ParentMatrix(&parentmatrix);
auto offset{glm::vec3{glm::make_mat4(parentmatrix.readArray()) * glm::vec4{0, 0, 0, 1}}};
if (glm::length(offset) < Geometrytestoffsetthreshold)
{
// offset of zero generally means the submodel has optimized identity matrix
// for such cases we resort to an estimate from submodel geometry
// TODO: do proper bounding area calculation for submodel when loading mesh and grab the centre point from it here
auto const &vertices{(m_geometry.handle != null_handle ? GfxRenderer->Vertices(m_geometry.handle) : Vertices)};
if (false == vertices.empty())
{
// transformation matrix for the submodel can still contain rotation and/or scaling,
// so we pass the vertex positions through it rather than just grab them directly
offset = glm::vec3();
auto const vertexfactor{1.f / vertices.size()};
auto const transformationmatrix{glm::make_mat4(parentmatrix.readArray())};
for (auto const &vertex : vertices)
{
offset += glm::vec3{transformationmatrix * glm::vec4{vertex.position, 1}} * vertexfactor;
}
}
}
return offset;
}
bool TModel3d::LoadFromFile(std::string const &FileName, bool dynamic)
{
// wczytanie modelu z pliku
/*
// NOTE: disabled, this work is now done by the model manager
std::string name = ToLower(FileName);
// trim extension if needed
if( name.rfind( '.' ) != std::string::npos )
{
name.erase(name.rfind('.'));
}
*/
auto const name{FileName};
// cache the file name, in case someone wants it later
m_filename = name;
asBinary = name + ".e3d";
// Hirek: Jesli mamy ustawione priorityLoadText3D na yes to wpierw ladujemy t3d
if (Global.priorityLoadText3D && FileExists(name + ".t3d"))
{
WriteLog("Forced loading text model \"" + name + ".t3d\"");
LoadFromTextFile(name + ".t3d", dynamic);
if (!dynamic)
Init();
}
else if (FileExists(asBinary))
{
LoadFromBinFile(asBinary, dynamic);
asBinary = "";
Init();
}
else if (FileExists(name + ".t3d"))
{
LoadFromTextFile(name + ".t3d", dynamic);
if (!dynamic)
Init();
}
bool const result = Root ? iSubModelsCount > 0 : false; // brak pliku albo problem z wczytaniem
if (false == result)
{
ErrorLog("Bad model: failed to load 3d model \"" + name + "\"");
}
return result;
};
// E3D serialization
// http://rainsted.com/pl/Format_binarny_modeli_-_E3D
// m7todo: wymyślić lepszą nazwę
template <typename L, typename T> size_t get_container_pos(L &list, T o)
{
auto i = std::find(list.begin(), list.end(), o);
if (i == list.end())
{
list.push_back(o);
return list.size() - 1;
}
else
{
return std::distance(list.begin(), i);
}
}
// m7todo: za dużo argumentów, może przenieść do osobnej
// klasy serializera mającej własny stan, albo zrobić
// strukturę TModel3d::SerializerContext?
void TSubModel::serialize(std::ostream &s, std::vector<TSubModel *> &models, std::vector<std::string> &names, std::vector<std::string> &textures, std::vector<float4x4> &transforms)
{
size_t end = (size_t)s.tellp() + 256;
if (!Next)
sn_utils::ls_int32(s, -1);
else
sn_utils::ls_int32(s, (int32_t)get_container_pos(models, Next));
if (!Child)
sn_utils::ls_int32(s, -1);
else
sn_utils::ls_int32(s, (int32_t)get_container_pos(models, Child));
sn_utils::ls_int32(s, eType);
if (pName.size() == 0)
sn_utils::ls_int32(s, -1);
else
sn_utils::ls_int32(s, (int32_t)get_container_pos(names, pName));
sn_utils::ls_int32(s, (int)b_Anim);
uint32_t flags = iFlags;
if (m_material > 0 && Global.iConvertModels & 16)
flags &= ~0x30; // don't save phase information, will be guessed on binary load from material
sn_utils::ls_uint32(s, flags);
sn_utils::ls_int32(s, (int32_t)get_container_pos(transforms, *fMatrix));
sn_utils::ls_int32(s, m_geometry.vertex_count);
sn_utils::ls_int32(s, m_geometry.vertex_offset);
if (m_material <= 0)
sn_utils::ls_int32(s, m_material);
else
sn_utils::ls_int32(s, (int32_t)get_container_pos(textures, m_materialname));
sn_utils::ls_float32(s, 1.f); // fVisible
sn_utils::ls_float32(s, fLight);
sn_utils::s_vec4(s, f4Ambient);
sn_utils::s_vec4(s, f4Diffuse);
sn_utils::s_vec4(s, f4Specular);
sn_utils::s_vec4(s, f4Emision);
sn_utils::ls_float32(s, fWireSize);
sn_utils::ls_float32(s, fSquareMaxDist);
sn_utils::ls_float32(s, fSquareMinDist);
sn_utils::ls_float32(s, fNearAttenStart);
sn_utils::ls_float32(s, fNearAttenEnd);
sn_utils::ls_uint32(s, bUseNearAtten ? 1 : 0);
sn_utils::ls_int32(s, iFarAttenDecay);
sn_utils::ls_float32(s, fFarDecayRadius);
sn_utils::ls_float32(s, fCosFalloffAngle);
sn_utils::ls_float32(s, fCosHotspotAngle);
sn_utils::ls_float32(s, fCosViewAngle);
sn_utils::ls_int32(s, m_geometry.index_count);
sn_utils::ls_int32(s, m_geometry.index_offset);
// external data
sn_utils::ls_float32(s, diffuseMultiplier);
// fill empty space
size_t fill = end - s.tellp();
for (size_t i = 0; i < fill; i++)
s.put(0);
}
void TModel3d::SaveToBinFile(std::string const &FileName)
{
WriteLog("saving e3d model..");
// m7todo: można by zoptymalizować robiąc unordered_map
// na wyszukiwanie numerów już dodanych stringów i osobno
// vector na wskaźniki do stringów w kolejności numeracji
// tylko czy potrzeba?
std::vector<TSubModel *> models;
models.push_back(Root);
std::vector<std::string> names;
std::vector<std::string> textures;
textures.push_back("");
std::vector<float4x4> transforms;
std::ofstream s(FileName, std::ios::binary);
sn_utils::ls_uint32(s, MAKE_ID4('E', '3', 'D', '0'));
auto const e3d_spos = s.tellp();
sn_utils::ls_uint32(s, 0);
bool has_any_userdata = Root->HasAnyVertexUserData();
{
sn_utils::ls_uint32(s, MAKE_ID4('S', 'U', 'B', '0'));
auto const sub_spos = s.tellp();
sn_utils::ls_uint32(s, 0);
for (size_t i = 0; i < models.size(); i++)
models[i]->serialize(s, models, names, textures, transforms);
auto const pos = s.tellp();
s.seekp(sub_spos);
sn_utils::ls_uint32(s, (uint32_t)(4 + pos - sub_spos));
s.seekp(pos);
}
sn_utils::ls_uint32(s, MAKE_ID4('T', 'R', 'A', '0'));
sn_utils::ls_uint32(s, 8 + (uint32_t)transforms.size() * 64);
for (size_t i = 0; i < transforms.size(); i++)
transforms[i].serialize_float32(s);
auto const isindexed{m_indexcount > 0};
if (isindexed)
{
auto const indexsize{Root->index_size()};
sn_utils::ls_uint32(s, MAKE_ID4('I', 'D', 'X', '0' + indexsize));
sn_utils::ls_uint32(s, 8 + m_indexcount * indexsize);
Root->serialize_indices(s, indexsize);
if (!(Global.iConvertModels & 8))
{
int modeltype = 1;
int vertexsize = 20;
if (has_any_userdata)
{
modeltype |= 4;
vertexsize += 8;
}
sn_utils::ls_uint32(s, MAKE_ID4('V', 'N', 'T', '0' + modeltype));
sn_utils::ls_uint32(s, 8 + m_vertexcount * vertexsize);
Root->serialize_geometry(s, true, true, has_any_userdata);
}
else
{
int modeltype = 2;
int vertexsize = 48;
if (has_any_userdata)
{
modeltype |= 4;
vertexsize += 16;
}
sn_utils::ls_uint32(s, MAKE_ID4('V', 'N', 'T', '0' + modeltype));
sn_utils::ls_uint32(s, 8 + m_vertexcount * vertexsize);
Root->serialize_geometry(s, false, true, has_any_userdata);
}
}
else
{
int modeltype = 0;
int vertexsize = 32;
if (has_any_userdata)
{
modeltype |= 4;
vertexsize += 16;
}
sn_utils::ls_uint32(s, MAKE_ID4('V', 'N', 'T', '0' + modeltype));
sn_utils::ls_uint32(s, 8 + m_vertexcount * vertexsize);
Root->serialize_geometry(s, false, false, has_any_userdata);
}
if (textures.size())
{
sn_utils::ls_uint32(s, MAKE_ID4('T', 'E', 'X', '0'));
auto const tex_spos = s.tellp();
sn_utils::ls_uint32(s, 0);
for (size_t i = 0; i < textures.size(); i++)
sn_utils::s_str(s, textures[i]);
auto const pos = s.tellp();
s.seekp(tex_spos);
sn_utils::ls_uint32(s, (uint32_t)(4 + pos - tex_spos));
s.seekp(pos);
}
if (names.size())
{
sn_utils::ls_uint32(s, MAKE_ID4('N', 'A', 'M', '0'));
auto const nam_spos = s.tellp();
sn_utils::ls_uint32(s, 0);
for (size_t i = 0; i < names.size(); i++)
sn_utils::s_str(s, names[i]);
auto const pos = s.tellp();
s.seekp(nam_spos);
sn_utils::ls_uint32(s, (uint32_t)(4 + pos - nam_spos));
s.seekp(pos);
}
auto const end = s.tellp();
s.seekp(e3d_spos);
sn_utils::ls_uint32(s, (uint32_t)(4 + end - e3d_spos));
s.close();
WriteLog("..done.");
}
void TSubModel::deserialize(std::istream &s)
{
iNext = sn_utils::ld_int32(s);
iChild = sn_utils::ld_int32(s);
eType = sn_utils::ld_int32(s);
iName = sn_utils::ld_int32(s);
b_Anim = (TAnimType)sn_utils::ld_int32(s);
iFlags = sn_utils::ld_uint32(s);
iMatrix = sn_utils::ld_int32(s);
m_geometry.vertex_count = sn_utils::ld_int32(s);
m_geometry.vertex_offset = sn_utils::ld_int32(s);
iTexture = sn_utils::ld_int32(s);
auto discard = sn_utils::ld_float32(s); // fVisible
fLight = sn_utils::ld_float32(s);
f4Ambient = sn_utils::d_vec4(s);
f4Diffuse = sn_utils::d_vec4(s);
f4Specular = sn_utils::d_vec4(s);
f4Emision = sn_utils::d_vec4(s);
fWireSize = sn_utils::ld_float32(s);
fSquareMaxDist = sn_utils::ld_float32(s);
fSquareMinDist = sn_utils::ld_float32(s);
fNearAttenStart = sn_utils::ld_float32(s);
fNearAttenEnd = sn_utils::ld_float32(s);
bUseNearAtten = sn_utils::ld_uint32(s) != 0;
iFarAttenDecay = sn_utils::ld_int32(s);
fFarDecayRadius = sn_utils::ld_float32(s);
fCosFalloffAngle = sn_utils::ld_float32(s);
fCosHotspotAngle = sn_utils::ld_float32(s);
fCosViewAngle = sn_utils::ld_float32(s);
// HACK: the values will be 0 also when reading legacy chunk
m_geometry.index_count = sn_utils::ld_int32(s);
m_geometry.index_offset = sn_utils::ld_int32(s);
// extra data block
diffuseMultiplier = sn_utils::ld_float32(s);
// only multiply diffuse on experimental renderer
if (!Global.NvRenderer)
f4Diffuse /= diffuseMultiplier <= 0.0 ? 1.0 : diffuseMultiplier;
// necessary rotations were already done during t3d->e3d conversion
m_rotation_init_done = true;
}
void TModel3d::deserialize(std::istream &s, size_t size, bool dynamic)
{
Root = nullptr;
if (m_geometrybank == null_handle)
{
m_geometrybank = GfxRenderer->Create_Bank();
}
std::streampos end = s.tellg() + (std::streampos)size;
bool hastangents{false};
bool hasuserdata{false};
while (s.tellg() < end)
{
uint32_t type = sn_utils::ld_uint32(s);
uint32_t size = sn_utils::ld_uint32(s) - 8;
size_t pos = s.tellg();
std::streampos end = pos + (std::streampos)size;
if ((type & 0x00FFFFFF) == MAKE_ID4('S', 'U', 'B', 0)) // submodels
{
if (Root != nullptr)
throw std::runtime_error("e3d: duplicated SUB chunk");
size_t sm_size = 256 + 64 * (((type & 0xFF000000) >> 24) - '0');
size_t sm_cnt = size / sm_size;
iSubModelsCount = (int)sm_cnt;
Root = new TSubModel[sm_cnt];
for (size_t i = 0; i < sm_cnt; ++i)
{
s.seekg(pos + sm_size * i);
Root[i].deserialize(s);
}
}
else if ((type & 0x00FFFFFF) == MAKE_ID4('V', 'N', 'T', 0)) // geometry vertices
{
// we rely on the SUB chunk coming before the vertex data, and on the overall vertex count matching the size of data in the chunk.
// geometry associated with chunks isn't stored in the same order as the chunks themselves, so we need to sort that out first
if (Root == nullptr)
throw std::runtime_error("e3d: VNT chunk encountered before SUB chunk");
std::vector<std::pair<int, int>> submodeloffsets; // vertex data offset, submodel index
submodeloffsets.reserve(iSubModelsCount);
for (auto submodelindex = 0; submodelindex < iSubModelsCount; ++submodelindex)
{
auto const &submodelgeometry{Root[submodelindex].m_geometry};
if (submodelgeometry.vertex_count <= 0)
{
continue;
}
submodeloffsets.emplace_back(submodelgeometry.vertex_offset, submodelindex);
}
std::sort(std::begin(submodeloffsets), std::end(submodeloffsets), [](std::pair<int, int> const &Left, std::pair<int, int> const &Right) { return Left.first < Right.first; });
// once sorted we can grab geometry as it comes, and assign it to the chunks it belongs to
size_t const vertextype{(((type & 0xFF000000) >> 24) - '0')};
hastangents = (vertextype & 3) > 0;
hasuserdata = vertextype & 4;
size_t vertex_size = 0;
switch (vertextype & 3)
{
case 0:
case 2:
{
vertex_size = 8;
if (hastangents)
vertex_size += 4;
if (hasuserdata)
vertex_size += 4;
break;
}
case 1:
{
vertex_size = 4;
if (hastangents)
vertex_size += 1;
if (hasuserdata)
vertex_size += 2;
break;
}
}
for (auto const &submodeloffset : submodeloffsets)
{
s.seekg(pos + submodeloffset.first * vertex_size * sizeof(float)); // Ensure that we start reading from the correct offset even if geometry is not encoded contiguously
auto &submodel{Root[submodeloffset.second]};
auto const &submodelgeometry{submodel.m_geometry};
submodel.Vertices.resize(submodelgeometry.vertex_count);
if (hasuserdata)
submodel.Userdata.resize(submodelgeometry.vertex_count);
m_vertexcount += submodelgeometry.vertex_count;
switch (vertextype & 3)
{
case 0:
{
// legacy vnt0 format
for (int i = 0; i < submodel.Vertices.size(); ++i)
{
submodel.Vertices[i].deserialize(s, hastangents);
if (hasuserdata)
submodel.Userdata[i].deserialize(s);
if (submodel.eType < TP_ROTATOR)
{
// normal vectors debug routine
if (false == submodel.m_normalizenormals && std::abs(glm::length2(submodel.Vertices[i].normal) - 1.0f) > 0.01f)
{
submodel.m_normalizenormals = TSubModel::normalize; // we don't know if uniform scaling would suffice
WriteLog("Bad model: non-unit normal vector(s) encountered during sub-model geometry deserialization", logtype::model);
}
}
}
break;
}
case 1:
{
// expanded chunk formats
for (int i = 0; i < submodel.Vertices.size(); ++i)
{
submodel.Vertices[i].deserialize_packed(s, hastangents);
if (hasuserdata)
submodel.Userdata[i].deserialize_packed(s);
}
break;
}
case 2:
{
// expanded chunk formats
for (int i = 0; i < submodel.Vertices.size(); ++i)
{
submodel.Vertices[i].deserialize(s, hastangents);
if (hasuserdata)
submodel.Userdata[i].deserialize(s);
}
break;
}
default:
{
// TBD, TODO: throw error here?
break;
}
}
}
}
else if ((type & 0x00FFFFFF) == MAKE_ID4('I', 'D', 'X', 0)) // geometry indices
{
// handled similarly to vertex data chunk
// we rely on the SUB chunk coming before the vertex data, and on the overall vertex count matching the size of data in the chunk.
// geometry associated with chunks isn't stored in the same order as the chunks themselves, so we need to sort that out first
if (Root == nullptr)
throw std::runtime_error("e3d: IDX chunk encountered before SUB chunk");
std::vector<std::pair<int, int>> submodeloffsets; // index data offset, submodel index
submodeloffsets.reserve(iSubModelsCount);
for (auto submodelindex = 0; submodelindex < iSubModelsCount; ++submodelindex)
{
auto const &submodelgeometry{Root[submodelindex].m_geometry};
if (submodelgeometry.index_count <= 0)
{
continue;
}
submodeloffsets.emplace_back(submodelgeometry.index_offset, submodelindex);
}
std::sort(std::begin(submodeloffsets), std::end(submodeloffsets), [](std::pair<int, int> const &Left, std::pair<int, int> const &Right) { return Left.first < Right.first; });
// once sorted we can grab indices in a continuous read, and assign them to the chunks they belong to
size_t const indexsize{(((type & 0xFF000000) >> 24) - '0')};
for (auto const &submodeloffset : submodeloffsets)
{
s.seekg(pos + submodeloffset.first * indexsize);
auto &submodel{Root[submodeloffset.second]};
auto const &submodelgeometry{submodel.m_geometry};
submodel.Indices.resize(submodelgeometry.index_count);
m_indexcount += submodelgeometry.index_count;
switch (indexsize)
{
case 1:
{
for (auto &index : submodel.Indices)
{
index = sn_utils::d_uint8(s);
}
break;
}
case 2:
{
for (auto &index : submodel.Indices)
{
index = sn_utils::ld_uint16(s);
}
break;
}
case 4:
{
for (auto &index : submodel.Indices)
{
index = sn_utils::ld_uint32(s);
}
break;
}
default:
{
break;
}
}
}
}
else if (type == MAKE_ID4('T', 'R', 'A', '0'))
{
if (false == Matrices.empty())
throw std::runtime_error("e3d: duplicated TRA chunk");
size_t t_cnt = size / 64;
Matrices.resize(t_cnt);
for (size_t i = 0; i < t_cnt; ++i)
Matrices[i].deserialize_float32(s);
}
else if (type == MAKE_ID4('T', 'R', 'A', '1'))
{
if (false == Matrices.empty())
throw std::runtime_error("e3d: duplicated TRA chunk");
size_t t_cnt = size / 128;
Matrices.resize(t_cnt);
for (size_t i = 0; i < t_cnt; ++i)
Matrices[i].deserialize_float64(s);
}
else if (type == MAKE_ID4('T', 'E', 'X', '0'))
{
if (Textures.size())
throw std::runtime_error("e3d: duplicated TEX chunk");
while (s.tellg() < end)
{
std::string str = sn_utils::d_str(s);
std::replace(str.begin(), str.end(), '\\', '/');
Textures.push_back(str);
}
}
else if (type == MAKE_ID4('N', 'A', 'M', '0'))
{
if (Names.size())
throw std::runtime_error("e3d: duplicated NAM chunk");
while (s.tellg() < end)
Names.push_back(sn_utils::d_str(s));
}
s.seekg(end);
}
if (!Root)
throw std::runtime_error("e3d: no submodels");
for (size_t i = 0; (int)i < iSubModelsCount; ++i)
{
Root[i].BinInit(Root, Matrices.data(), &Textures, &Names, dynamic);
if (Root[i].ChildGet())
Root[i].ChildGet()->Parent = &Root[i];
if (Root[i].NextGet())
Root[i].NextGet()->Parent = Root[i].Parent;
// remap geometry type for custom type submodels
int type;
switch (Root[i].eType)
{
case TP_FREESPOTLIGHT:
case TP_STARS:
{
type = GL_POINTS;
break;
}
default:
{
type = Root[i].eType;
break;
}
}
if (false == hastangents)
{
gfx::calculate_tangents(Root[i].Vertices, Root[i].Indices, type);
}
Root[i].m_geometry.handle = GfxRenderer->Insert(Root[i].Indices, Root[i].Vertices, Root[i].Userdata, m_geometrybank, type);
}
}
void TSubModel::BinInit(TSubModel *s, float4x4 *m, std::vector<std::string> *t, std::vector<std::string> *n, bool dynamic)
{ // ustawienie wskaźników w submodelu
// m7todo: brzydko
iVisible = 1; // tymczasowo używane
Child = iChild > 0 ? s + iChild : nullptr; // zerowy nie może być potomnym
Next = iNext > 0 ? s + iNext : nullptr; // zerowy nie może być następnym
fMatrix = iMatrix >= 0 && m ? m + iMatrix : nullptr;
if (n->size() && iName >= 0)
{
pName = n->at(iName);
if (!pName.empty())
{ // jeśli dany submodel jest zgaszonym światłem, to
// domyślnie go ukrywamy
if (pName.starts_with("Light_On"))
{ // jeśli jest światłem numerowanym
iVisible = 0; // to domyślnie wyłączyć, żeby się nie nakładało z obiektem "Light_Off"
}
else if (dynamic)
{ // inaczej wyłączało smugę w latarniach
if (pName.ends_with("_on"))
{
// jeśli jest kontrolką w stanie zapalonym to domyślnie wyłączyć,
// żeby się nie nakładało z obiektem "_off"
iVisible = 0;
}
}
// hack: reset specular light value for shadow submodels
if (pName == "cien")
{
f4Specular = glm::vec4{0.0f, 0.0f, 0.0f, 1.0f};
}
}
}
else
pName = "";
if (iTexture > 0)
{ // obsługa stałej tekstury
auto const materialindex = static_cast<std::size_t>(iTexture);
if (materialindex < t->size())
{
m_materialname = t->at(materialindex);
/*
if( m_materialname.find_last_of( "/" ) == std::string::npos ) {
m_materialname = Global.asCurrentTexturePath + m_materialname;
}
*/
m_material = GfxRenderer->Fetch_Material(m_materialname);
// if we don't have phase flags set for some reason, try to fix it
if (!(iFlags & 0x30) && m_material != null_handle)
{
const IMaterial *mat = GfxRenderer->Material(m_material);
float opacity = mat->get_or_guess_opacity();
// set phase flag based on material opacity
if (opacity == 0.0f)
iFlags |= 0x20; // translucent
else
iFlags |= 0x10; // opaque
}
if (m_material != null_handle)
{
IMaterial const *mat = GfxRenderer->Material(m_material);
/*
// if material does have opacity set, replace submodel opacity with it
if (mat.opacity)
{
iFlags &= ~0x30;
if (*mat.opacity == 0.0f)
iFlags |= 0x20; // translucent
else
iFlags |= 0x10; // opaque
}
*/
// replace submodel selfillum with material one
if (mat->GetSelfillum())
{
fLight = mat->GetSelfillum().value();
}
}
}
else
{
ErrorLog("Bad model: reference to nonexistent texture index in sub-model" + (pName.empty() ? "" : " \"" + pName + "\""), logtype::model);
m_material = null_handle;
}
}
else
{
if (iTexture == 0)
m_material = GfxRenderer->Fetch_Material("colored");
else
m_material = iTexture;
}
b_aAnim = b_Anim; // skopiowanie animacji do drugiego cyklu
if (eType == TP_STARS)
{
m_material = GfxRenderer->Fetch_Material("stars");
iFlags |= 0x10;
}
else if (eType == TP_FREESPOTLIGHT && iFlags & 0x10)
{
// we've added light glare which needs to be rendered during transparent phase,
// but models converted to e3d before addition won't have the render flag set correctly for this
// so as a workaround we're doing it here manually
iFlags |= 0x20;
}
// intercept and fix hotspot values if specified in degrees and not directly
if (fCosFalloffAngle > 1.0f)
{
fCosFalloffAngle = std::cos(glm::radians(0.5f * fCosFalloffAngle));
}
if (fCosHotspotAngle > 1.0f)
{
fCosHotspotAngle = std::cos(glm::radians(0.5f * fCosHotspotAngle));
}
// cap specular values for legacy models
f4Specular = glm::vec4{std::clamp(f4Specular.r, 0.0f, 1.0f), std::clamp(f4Specular.g, 0.0f, 1.0f), std::clamp(f4Specular.b, 0.0f, 1.0f), std::clamp(f4Specular.a, 0.0f, 1.0f)};
iFlags &= ~0x0200; // wczytano z pliku binarnego (nie jest właścicielem tablic)
if (fMatrix != nullptr)
{
auto const matrix = glm::make_mat4(fMatrix->readArray());
glm::vec3 const scale{glm::length(glm::vec3(glm::column(matrix, 0))), glm::length(glm::vec3(glm::column(matrix, 1))), glm::length(glm::vec3(glm::column(matrix, 2)))};
if (std::abs(scale.x - 1.0f) > 0.01 || std::abs(scale.y - 1.0f) > 0.01 || std::abs(scale.z - 1.0f) > 0.01)
{
ErrorLog("Bad model: transformation matrix for sub-model \"" + pName + "\" imposes geometry scaling (factors: " + to_string(scale) + ")", logtype::model);
m_normalizenormals = std::abs(scale.x - scale.y) < 0.01f && std::abs(scale.y - scale.z) < 0.01f ? rescale : normalize;
}
}
}
bool TSubModel::HasAnyVertexUserData() const
{
for (const TSubModel *sm = this; sm; sm = sm->Next)
{
if (m_geometry.handle)
{
if (!GfxRenderer->UserData(m_geometry.handle).empty())
return true;
}
else
{
if (!sm->Userdata.empty())
return true;
}
if (sm->Child && sm->Child->HasAnyVertexUserData())
return true;
}
return false;
};
void TModel3d::LoadFromBinFile(std::string const &FileName, bool dynamic)
{ // wczytanie modelu z pliku binarnego
WriteLog("Loading binary format 3d model data from \"" + FileName + "\"...", logtype::model);
std::ifstream file(FileName, std::ios::binary);
uint32_t type = sn_utils::ld_uint32(file);
uint32_t size = sn_utils::ld_uint32(file) - 8;
if (type == MAKE_ID4('E', '3', 'D', '0'))
{
deserialize(file, size, dynamic);
file.close();
WriteLog("Finished loading 3d model data from \"" + FileName + "\"", logtype::model);
}
else
{
// throw std::runtime_error("e3d: unknown main chunk");
ErrorLog("Bad model: unknown main chunk in file \"" + FileName + "\"", logtype::model);
file.close();
}
};
TSubModel *TModel3d::AppendChildFromGeometry(const std::string &name, const std::string &parent, const gfx::vertex_array &vertices, const gfx::index_array &indices)
{
iFlags |= 0x0200;
TSubModel *sm = new TSubModel();
sm->Parent = AddToNamed(parent.c_str(), sm);
sm->m_geometry.vertex_count = vertices.size();
sm->m_geometry.index_count = indices.size();
sm->eType = GL_TRIANGLES;
sm->pName = name;
sm->m_material = GfxRenderer->Fetch_Material("colored");
sm->fMatrix = new float4x4();
sm->fMatrix->Identity();
sm->iFlags |= 0x10;
sm->iFlags |= 0x8000;
sm->WillBeAnimated();
if (vertices.empty())
sm->iFlags &= ~0x3F;
sm->Vertices = vertices;
sm->Indices = indices;
m_vertexcount += vertices.size();
m_indexcount += indices.size();
if (!Root)
Root = sm;
return sm;
}
void TModel3d::LoadFromTextFile(std::string const &FileName, bool dynamic)
{ // wczytanie submodelu z pliku tekstowego
WriteLog("Loading text format 3d model data from \"" + FileName + "\"...", logtype::model);
iFlags |= 0x0200; // wczytano z pliku tekstowego (właścicielami tablic są submodle)
cParser parser(FileName, cParser::buffer_FILE); // Ra: tu powinno być "models/"...
TSubModel *SubModel;
std::string token = parser.getToken<std::string>();
while (token != "" || parser.eof())
{
std::string parent;
// parser.getToken(parent);
parser.getTokens(1, false); // nazwa submodelu nadrzędnego bez zmieny na małe
parser >> parent;
if (parent == "")
{
break;
}
SubModel = new TSubModel();
SubModel->Parent = GetFromName(parent);
{
auto const result{SubModel->Load(parser, dynamic)};
m_indexcount += result.first;
m_vertexcount += result.second;
}
if (SubModel->Parent == nullptr && parent != "none")
ErrorLog("Bad model: parent for sub-model \"" + SubModel->pName + "\" doesn't exist or is located later in the model data", logtype::model);
AddTo(SubModel->Parent, SubModel);
parser.getTokens();
parser >> token;
}
// Ra: od wersji 334 przechylany jest cały model, a nie tylko pierwszy submodel
// ale bujanie kabiny nadal używa bananów :( od 393 przywrócone, ale z dodatkowym warunkiem
if (Global.iConvertModels & 4)
{ // automatyczne banany czasem psuły przechylanie kabin...
if (dynamic && Root)
{
if (Root->NextGet()) // jeśli ma jakiekolwiek kolejne
{ // dynamic musi mieć "banana", bo tylko pierwszy obiekt jest animowany, a następne nie
SubModel = new TSubModel(); // utworzenie pustego
SubModel->ChildAdd(Root);
Root = SubModel;
++iSubModelsCount;
}
Root->WillBeAnimated(); // bo z tym jest dużo problemów
}
}
}
std::uint32_t TSubModel::VariantId(TSubModel const *Submodel)
{ // the seed is already well scattered, so the group is merely added to it. this way branches of one model
// are guaranteed to land on different variants, as long as the pool holds at least as many entries as
// the model has branches -- two containers carried by the same wagon won't come up with the same number
return iVariantSeed + static_cast<std::uint32_t>(Submodel != nullptr ? Submodel->m_variantgroup : 0);
}
namespace
{
// two branches sitting no farther than this from each other are treated as one object.
// generous, a simplified lod mesh doesn't have to sit exactly where the detailed one does
float const variantgrouptolerance{0.25f};
// assigns provided variant group id to the submodel and all of its children
void mark_variant_group(TSubModel *Submodel, int const Group, bool const Includesiblings)
{
while (Submodel != nullptr)
{
Submodel->m_variantgroup = Group;
mark_variant_group(Submodel->ChildGet(), Group, true);
if (false == Includesiblings)
{
break;
}
Submodel = Submodel->NextGet();
}
}
// expands provided bounding area to cover geometry carried by the submodel and all of its children
void accumulate_mesh_bounds(TSubModel const *Submodel, glm::vec3 &Minimum, glm::vec3 &Maximum, bool &Isempty, bool const Includesiblings)
{
while (Submodel != nullptr)
{
if (auto const &vertices{(Submodel->m_geometry.handle != null_handle ? GfxRenderer->Vertices(Submodel->m_geometry.handle) : Submodel->Vertices)};
false == vertices.empty())
{
// the transformation chain can still hold a rotation, so the vertices go through it
// rather than get taken at their face value
float4x4 parentmatrix;
Submodel->ParentMatrix(&parentmatrix);
auto const transformationmatrix{glm::make_mat4(parentmatrix.readArray())};
for (auto const &vertex : vertices)
{
auto const position{glm::vec3{transformationmatrix * glm::vec4{vertex.position, 1}}};
Minimum = glm::min(Minimum, position);
Maximum = glm::max(Maximum, position);
}
Isempty = false;
}
accumulate_mesh_bounds(Submodel->Child, Minimum, Maximum, Isempty, true);
if (false == Includesiblings)
{
break;
}
Submodel = Submodel->Next;
}
}
// returns position of provided branch of the model, relative to the model root
glm::vec3 branch_position(TSubModel const *Branch)
{
// the transformation chain is the cheap way to get there, as it doesn't touch the geometry,
// which keeps this affordable even for models made of thousands of branches...
auto const offset{Branch->offset()};
if (glm::length2(offset) > variantgrouptolerance * variantgrouptolerance)
{
return offset;
}
// ...but it only tells us anything for branches which actually carry a transform. models loaded from
// text format can have theirs baked into the vertices instead, which leaves the whole model piled up
// at the origin and, without the fallback below, all of its branches in a single variant group.
// NOTE: it's the centre of the bounding area we're after, and not the average vertex position offset()
// would give us -- the latter drifts with vertex density, which puts each lod mesh of one object in
// a group of its own and has the object change its texture variant as the lods get swapped
glm::vec3 minimum{std::numeric_limits<float>::max()};
glm::vec3 maximum{std::numeric_limits<float>::lowest()};
bool isempty{true};
accumulate_mesh_bounds(Branch, minimum, maximum, isempty, false);
return (false == isempty ? (minimum + maximum) * 0.5f : offset);
}
} // namespace
void TModel3d::assign_variant_groups()
{ // each top level branch of the model gets a group id, which it passes down to all of its children.
// for load models a branch is a single load chunk, and the group id is what makes two chunks of the same
// model pick different texture variants, while keeping all parts of one chunk on the same variant.
// the id comes from the position of the branch, not from its ordinal: lod variants of one object are
// separate branches drawn in disjoint distance ranges, and grouping them by position is what keeps the
// object on the same variant no matter which of them is currently on screen
std::vector<glm::vec3> grouppositions; // position of each group, indexed by its id
auto const groupid = [&grouppositions](TSubModel const *Branch) {
auto const position{branch_position(Branch)};
for (std::size_t index = 0; index < grouppositions.size(); ++index)
{
if (glm::length2(grouppositions[index] - position) < variantgrouptolerance * variantgrouptolerance)
{
return static_cast<int>(index);
}
}
grouppositions.emplace_back(position);
return static_cast<int>(grouppositions.size() - 1);
};
for (auto *trunk = Root; trunk != nullptr; trunk = trunk->NextGet())
{
// root level submodels are usually mere containers, but can carry geometry of their own
trunk->m_variantgroup = groupid(trunk);
for (auto *branch = trunk->ChildGet(); branch != nullptr; branch = branch->NextGet())
{
mark_variant_group(branch, groupid(branch), false);
}
}
}
void TModel3d::Init()
{ // obrócenie początkowe układu współrzędnych, dla
// pojazdów wykonywane po analizie animacji
if (iFlags & 0x8000)
return; // operacje zostały już wykonane
if (Root)
{
if (iFlags & 0x0200)
{
// jeśli wczytano z pliku tekstowego jest jakiś dziwny błąd,
// że obkręcany ma być tylko ostatni submodel głównego łańcucha
// argumet określa, czy wykonać pierwotny obrót
Root->InitialRotate(true);
}
iFlags |= Root->FlagsCheck() | 0x8000; // flagi całego modelu
if (m_vertexcount)
{
if (m_geometrybank == null_handle)
{
m_geometrybank = GfxRenderer->Create_Bank();
}
std::size_t indexoffset = 0;
std::size_t vertexoffset = 0;
Root->create_geometry(indexoffset, vertexoffset, m_geometrybank);
}
// determine final bounding radius from the root-level siblings
auto const *root{Root};
while ((root = root->Next) != nullptr)
{
Root->m_boundingradius = std::max(Root->m_boundingradius, root->m_boundingradius);
}
assign_variant_groups();
if (Global.iConvertModels & 1 && false == asBinary.empty())
{
SaveToBinFile(asBinary);
asBinary = ""; // zablokowanie powtórnego zapisu
}
}
// check if the model contains particle emitters
find_smoke_sources();
};
//-----------------------------------------------------------------------------
// 2012-02 funkcje do tworzenia terenu z E3D
//-----------------------------------------------------------------------------
int TModel3d::TerrainCount() const
{ // zliczanie kwadratów kilometrowych (główna
// linia po Next) do tworznia tablicy
int i = 0;
TSubModel *r = Root;
while (r)
{
r = r->NextGet();
++i;
}
return i;
};
TSubModel *TModel3d::TerrainSquare(int n)
{ // pobieranie wskaźnika do submodelu (n)
int i = 0;
TSubModel *r = Root;
while (i < n)
{
r = r->NextGet();
++i;
}
r->UnFlagNext(); // blokowanie wyświetlania po Next głównej listy
return r;
};
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