#include "Runtime/Particle/CParticleElectric.hpp" #include #include "Runtime/GameGlobalObjects.hpp" #include "Runtime/Graphics/CBooRenderer.hpp" #include "Runtime/Graphics/CGraphics.hpp" #include "Runtime/Graphics/CModel.hpp" #include "Runtime/Particle/CElectricDescription.hpp" #include "Runtime/Particle/CElementGen.hpp" #include "Runtime/Particle/CGenDescription.hpp" #include "Runtime/Particle/CParticleGlobals.hpp" #include "Runtime/Particle/CParticleSwoosh.hpp" #include "Runtime/Particle/CSwooshDescription.hpp" #include #include namespace metaforce { u16 CParticleElectric::g_GlobalSeed = 99; CParticleElectric::CParticleElectric(const TToken& token) : x1c_elecDesc(token) , x14c_randState(g_GlobalSeed++) { x1bc_allocated.resize(32); CElectricDescription* desc = x1c_elecDesc.GetObj(); if (CIntElement* sseg = desc->x10_SSEG.get()) { sseg->GetValue(x28_currentFrame, x150_SSEG); } if (CIntElement* scnt = desc->xc_SCNT.get()) { scnt->GetValue(x28_currentFrame, x154_SCNT); } x154_SCNT = std::min(x154_SCNT, 32); if (CIntElement* life = desc->x0_LIFE.get()) { life->GetValue(0, x2c_LIFE); } else { x2c_LIFE = INT_MAX; } if (desc->x40_SSWH) { x450_27_haveSSWH = true; for (int i = 0; i < x154_SCNT; ++i) { x1e0_swooshGenerators.emplace_back(std::make_unique(desc->x40_SSWH.m_token, x150_SSEG)); x1e0_swooshGenerators.back()->DoElectricWarmup(); } } ++x150_SSEG; x420_calculatedVerts.resize(x150_SSEG); x440_fractalOffsets.resize(x150_SSEG); x430_fractalMags.resize(x150_SSEG); if (desc->x50_GPSM) { x450_25_haveGPSM = true; x400_gpsmGenerators.reserve(x154_SCNT); for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators.emplace_back(std::make_unique(desc->x50_GPSM.m_token)); x400_gpsmGenerators.back()->SetParticleEmission(false); } } if (desc->x60_EPSM) { x450_26_haveEPSM = true; x410_epsmGenerators.reserve(x154_SCNT); for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators.emplace_back(std::make_unique(desc->x60_EPSM.m_token)); x410_epsmGenerators.back()->SetParticleEmission(false); } } if (x1c_elecDesc->x28_LWD1 || x1c_elecDesc->x2c_LWD2 || x1c_elecDesc->x30_LWD3) { x450_28_haveLWD = true; for (int i = 0; i < x154_SCNT; ++i) { x2e4_lineManagers.emplace_back(std::make_unique()); } } } void CParticleElectric::RenderSwooshes() { for (const CParticleElectricManager& elec : x3e8_electricManagers) { x1e0_swooshGenerators[elec.x0_idx]->Render(); } } void CParticleElectric::SetupLineGXMaterial() { // Konst color/alpha 0 } void CParticleElectric::DrawLineStrip(const std::vector& verts, float width, const zeus::CColor& color) { const size_t useIdx = m_nextLineRenderer; if (++m_nextLineRenderer > m_lineRenderers.size()) { m_lineRenderers.resize(m_nextLineRenderer); } if (!m_lineRenderers[useIdx]) { m_lineRenderers[useIdx] = std::make_unique(CLineRenderer::EPrimitiveMode::LineStrip, x150_SSEG, nullptr, true, true); } CLineRenderer& renderer = *m_lineRenderers[useIdx]; const zeus::CColor useColor = x1b8_moduColor * color; renderer.Reset(); for (const zeus::CVector3f& vert : verts) { renderer.AddVertex(vert, useColor, width); } renderer.Render(g_Renderer->IsThermalVisorHotPass()); } void CParticleElectric::RenderLines() { m_nextLineRenderer = 0; CGraphics::DisableAllLights(); // Z-test, no write // Additive blend CGraphics::SetModelMatrix(zeus::CTransform::Translate(xa4_globalTranslation) * xb0_globalOrientation * zeus::CTransform::Translate(x38_translation) * x44_orientation * zeus::CTransform::Scale(xe0_globalScale) * zeus::CTransform::Scale(xec_localScale)); // Disable culling SetupLineGXMaterial(); for (CParticleElectricManager& elec : x3e8_electricManagers) { CLineManager& line = *x2e4_lineManagers[elec.x0_idx]; if (x1c_elecDesc->x28_LWD1) { DrawLineStrip(line.x0_verts, line.x10_widths[0], line.x1c_colors[0]); } if (x1c_elecDesc->x2c_LWD2) { DrawLineStrip(line.x0_verts, line.x10_widths[1], line.x1c_colors[1]); } if (x1c_elecDesc->x30_LWD3) { DrawLineStrip(line.x0_verts, line.x10_widths[2], line.x1c_colors[2]); } } // Enable culling // Line Width 1 } void CParticleElectric::UpdateCachedTransform() { xf8_cachedXf = zeus::CTransform::Translate(xa4_globalTranslation) * xb0_globalOrientation * zeus::CTransform::Translate(x38_translation) * x44_orientation; x450_29_transformDirty = false; } void CParticleElectric::UpdateLine(size_t idx, int frame) { CLineManager& line = *x2e4_lineManagers[idx]; if (CColorElement* lcl1 = x1c_elecDesc->x34_LCL1.get()) { lcl1->GetValue(frame, line.x1c_colors[0]); } if (CColorElement* lcl2 = x1c_elecDesc->x38_LCL2.get()) { lcl2->GetValue(frame, line.x1c_colors[1]); } if (CColorElement* lcl3 = x1c_elecDesc->x3c_LCL3.get()) { lcl3->GetValue(frame, line.x1c_colors[2]); } if (CRealElement* lwd1 = x1c_elecDesc->x28_LWD1.get()) { lwd1->GetValue(frame, line.x10_widths[0]); } if (CRealElement* lwd2 = x1c_elecDesc->x2c_LWD2.get()) { lwd2->GetValue(frame, line.x10_widths[1]); } if (CRealElement* lwd3 = x1c_elecDesc->x30_LWD3.get()) { lwd3->GetValue(frame, line.x10_widths[2]); } } void CParticleElectric::UpdateElectricalEffects() { for (auto it = x3e8_electricManagers.begin(); it != x3e8_electricManagers.end();) { CParticleElectricManager& elec = *it; if (elec.x4_slif <= 1) { x1bc_allocated[elec.x0_idx] = false; if (elec.x10_gpsmIdx != -1) { x400_gpsmGenerators[elec.x10_gpsmIdx]->SetParticleEmission(false); } if (elec.x14_epsmIdx != -1) { x410_epsmGenerators[elec.x14_epsmIdx]->SetParticleEmission(false); } it = x3e8_electricManagers.erase(it); continue; } CParticleGlobals::instance()->SetParticleLifetime(int(elec.xc_endFrame - elec.x8_startFrame)); const int frame = x28_currentFrame - int(elec.x8_startFrame); CParticleGlobals::instance()->UpdateParticleLifetimeTweenValues(frame); if (x450_27_haveSSWH) { CParticleSwoosh& swoosh = *x1e0_swooshGenerators[elec.x0_idx]; zeus::CColor color = zeus::skWhite; if (CColorElement* colr = x1c_elecDesc->x14_COLR.get()) { colr->GetValue(frame, color); } swoosh.SetModulationColor(color * x1b8_moduColor); } if (x450_28_haveLWD) { UpdateLine(elec.x0_idx, frame); } elec.x4_slif -= 1; ++it; } } void CParticleElectric::CalculateFractal(int start, int end, float ampl, float ampd) { const float tmp = float(end - start) / float(x430_fractalMags.size()) * ampl; const int storeIdx = (start + end) / 2; x430_fractalMags[storeIdx] = (x430_fractalMags[start] + x430_fractalMags[end]) * 0.5f + tmp * x14c_randState.Float() - tmp * 0.5f + ampd * x14c_randState.Float() - ampd * 0.5f; if (((start + end) & 1) != 0) { x430_fractalMags[end - 1] = x430_fractalMags[end]; } if (storeIdx - start > 1) { CalculateFractal(start, storeIdx, ampl, ampd); } if (end - storeIdx > 1) { CalculateFractal(storeIdx, end, ampl, ampd); } } void CParticleElectric::CalculatePoints() { zeus::CVector3f pos, vel; if (CEmitterElement* iemt = x1c_elecDesc->x18_IEMT.get()) { iemt->GetValue(x28_currentFrame, pos, vel); } if (x178_overrideIPos) { pos = *x178_overrideIPos; } if (x188_overrideIVel) { vel = *x188_overrideIVel; } rstl::reserved_vector points; if (!vel.isZero()) { points.push_back(pos); points.push_back(pos + vel); points.push_back(pos + vel * 2.f); } else { points.push_back(pos); } zeus::CVector3f fpos = zeus::skForward; zeus::CVector3f fvel; if (CEmitterElement* femt = x1c_elecDesc->x1c_FEMT.get()) { femt->GetValue(x28_currentFrame, fpos, fvel); } if (x198_overrideFPos) { fpos = *x198_overrideFPos; } if (x1a8_overrideFVel) { fvel = *x1a8_overrideFVel; } if (!fvel.isZero()) { if (points.size() == 3) { points.push_back(fpos); points[2] = fpos + fvel; } else { points.push_back(fpos + fvel * 2.f); points.push_back(fpos + fvel); points.push_back(fpos); } } else { points.push_back(fpos); } if (points.size() == 4) { x420_calculatedVerts[0] = points[0]; const int segs = x150_SSEG - 1; const float segDiv = 1.f / float(segs); float curDiv = segDiv; for (int i = 1; i < segs; ++i) { const float t = segDiv * x14c_randState.Range(-0.45f, 0.45f) + curDiv; x420_calculatedVerts[i] = zeus::getBezierPoint(points[0], points[1], points[2], points[3], t); curDiv += segDiv; } x420_calculatedVerts[segs] = points[3]; } else { x420_calculatedVerts[0] = pos; const int segs = x150_SSEG - 1; const float segDiv = 1.f / float(segs); zeus::CVector3f accum = x420_calculatedVerts[0]; const zeus::CVector3f segDelta = (fpos - pos) * segDiv; for (int i = 1; i < segs; ++i) { float r = x14c_randState.Range(-0.45f, 0.45f); x420_calculatedVerts[i] = segDelta * r + accum; accum += segDelta; } x420_calculatedVerts[segs] = fpos; } for (int i = 0; i < x150_SSEG; ++i) { x430_fractalMags[i] = 0.f; } float amplVal = 1.f; if (CRealElement* ampl = x1c_elecDesc->x20_AMPL.get()) { ampl->GetValue(x28_currentFrame, amplVal); amplVal *= 2.f; } float ampdVal = 0.f; if (CRealElement* ampd = x1c_elecDesc->x24_AMPD.get()) { ampd->GetValue(x28_currentFrame, ampdVal); } CalculateFractal(0, x420_calculatedVerts.size() - 1, amplVal, ampdVal); zeus::CVector3f v0 = x420_calculatedVerts[0] - x420_calculatedVerts[1]; zeus::CVector3f v1 = x420_calculatedVerts[x420_calculatedVerts.size() - 1] - x420_calculatedVerts[1]; zeus::CVector3f upVec = zeus::skUp; if (v0.canBeNormalized() && v1.canBeNormalized()) { v0.normalize(); v1.normalize(); float dot = v0.dot(v1); if (dot < 0) { dot = -dot; } if (std::fabs(dot - 1.f) < 0.00001f) { upVec = zeus::lookAt(x420_calculatedVerts[0], x420_calculatedVerts[1]).basis[2]; } else { upVec = v0.cross(v1).normalized(); } } else if (x420_calculatedVerts[0] != x420_calculatedVerts[1]) { upVec = zeus::lookAt(x420_calculatedVerts[0], x420_calculatedVerts[1]).basis[2]; } const float commonRand = x14c_randState.Range(0.f, 360.f); for (size_t i = 1; i < x420_calculatedVerts.size() - 1; ++i) { const zeus::CVector3f delta = x420_calculatedVerts[i] - x420_calculatedVerts[i - 1]; if (!delta.isZero()) { const zeus::CRelAngle angle = zeus::degToRad(x430_fractalMags[i] / amplVal * 16.f * x14c_randState.Range(-1.f, 1.f) + commonRand); x440_fractalOffsets[i] = zeus::CQuaternion::fromAxisAngle(delta, angle).transform(x430_fractalMags[i] * upVec); } } for (size_t i = 1; i < x420_calculatedVerts.size() - 1; ++i) { x420_calculatedVerts[i] += x440_fractalOffsets[i]; } if (x1c_elecDesc->x70_ZERY) { for (auto& calculatedVert : x420_calculatedVerts) { calculatedVert.y() = 0.f; } } } void CParticleElectric::CreateNewParticles(int count) { size_t allocIdx = 0; for (int i = 0; i < count; ++i) { if (x3e8_electricManagers.size() < size_t(x154_SCNT)) { const zeus::CTransform cachedRot = xf8_cachedXf.getRotation(); const size_t toAdd = x1bc_allocated.size() - allocIdx; for (size_t j = 0; j < toAdd; ++j, ++allocIdx) { if (x1bc_allocated[allocIdx]) { continue; } x1bc_allocated[allocIdx] = true; int lifetime = 1; if (CIntElement* slif = x1c_elecDesc->x4_SLIF.get()) { slif->GetValue(x28_currentFrame, lifetime); } x3e8_electricManagers.emplace_back(allocIdx, lifetime, x28_currentFrame); CParticleElectricManager& elec = x3e8_electricManagers.back(); CParticleGlobals::instance()->SetParticleLifetime(elec.xc_endFrame - elec.x8_startFrame); const int frame = x28_currentFrame - int(elec.x8_startFrame); CParticleGlobals::instance()->UpdateParticleLifetimeTweenValues(frame); CalculatePoints(); if (x450_27_haveSSWH) { CParticleSwoosh& swoosh = *x1e0_swooshGenerators[allocIdx]; swoosh.SetParticleEmission(true); swoosh.SetGlobalTranslation(xf8_cachedXf.origin); swoosh.SetGlobalOrientation(cachedRot); swoosh.SetGlobalScale(xe0_globalScale); swoosh.SetLocalScale(xec_localScale); zeus::CColor color = zeus::skWhite; if (CColorElement* colr = x1c_elecDesc->x14_COLR.get()) { colr->GetValue(frame, color); } swoosh.SetModulationColor(color * x1b8_moduColor); swoosh.DoElectricCreate(x420_calculatedVerts); } if (x450_28_haveLWD) { CLineManager& line = *x2e4_lineManagers[allocIdx]; line.x0_verts = x420_calculatedVerts; UpdateLine(allocIdx, 0); if (x450_27_haveSSWH) { x130_buildBounds = zeus::CAABox(); for (const zeus::CVector3f& vec : x420_calculatedVerts) { x130_buildBounds.accumulateBounds(vec); } line.x28_aabb = x130_buildBounds; } } if (x450_25_haveGPSM) { for (int k = 0; k < x154_SCNT; ++k) { CElementGen& gen = *x400_gpsmGenerators[k]; if (!gen.GetParticleEmission()) { const zeus::CTransform scale = zeus::CTransform::Scale(xe0_globalScale) * zeus::CTransform::Scale(xec_localScale); gen.SetTranslation(scale * x420_calculatedVerts.front()); gen.SetParticleEmission(true); elec.x10_gpsmIdx = k; break; } } } if (x450_26_haveEPSM) { for (int k = 0; k < x154_SCNT; ++k) { CElementGen& gen = *x410_epsmGenerators[k]; if (!gen.GetParticleEmission()) { const zeus::CTransform scale = zeus::CTransform::Scale(xe0_globalScale) * zeus::CTransform::Scale(xec_localScale); gen.SetTranslation(scale * x420_calculatedVerts.back()); gen.SetParticleEmission(true); elec.x14_epsmIdx = k; break; } } } break; } } } } void CParticleElectric::AddElectricalEffects() { float genRate = 0.f; if (CRealElement* grat = x1c_elecDesc->x8_GRAT.get()) { if (grat->GetValue(x28_currentFrame, genRate)) { x3e8_electricManagers.clear(); std::fill(x1bc_allocated.begin(), x1bc_allocated.end(), false); return; } else { genRate = std::max(0.f, genRate); } } x15c_genRem += genRate; const float partCount = std::floor(x15c_genRem); x15c_genRem -= partCount; CreateNewParticles(int(partCount)); } void CParticleElectric::BuildBounds() { if (GetParticleCount() <= 0) { x160_systemBounds = zeus::CAABox(); return; } x160_systemBounds = zeus::CAABox(); if (x450_27_haveSSWH) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { const CParticleSwoosh& swoosh = *x1e0_swooshGenerators[elec.x0_idx]; if (const auto bounds = swoosh.GetBounds()) { x160_systemBounds.accumulateBounds(*bounds); } } } else if (x450_28_haveLWD) { zeus::CAABox tmp = zeus::CAABox(); for (const CParticleElectricManager& elec : x3e8_electricManagers) { CLineManager& line = *x2e4_lineManagers[elec.x0_idx]; tmp.accumulateBounds(line.x28_aabb); } if (!tmp.invalid()) { x160_systemBounds.accumulateBounds(tmp.getTransformedAABox( zeus::CTransform::Translate(xa4_globalTranslation) * xb0_globalOrientation * zeus::CTransform::Translate(x38_translation) * x44_orientation * zeus::CTransform::Scale(xe0_globalScale))); } } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { if (auto bounds = x400_gpsmGenerators[i]->GetBounds()) { x160_systemBounds.accumulateBounds(*bounds); } } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { if (auto bounds = x410_epsmGenerators[i]->GetBounds()) { x160_systemBounds.accumulateBounds(*bounds); } } } } bool CParticleElectric::Update(double dt) { [[maybe_unused]] CGlobalRandom gr(x14c_randState); bool ret = false; if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { if (!x400_gpsmGenerators[i]->IsSystemDeletable()) { break; } } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { if (!x410_epsmGenerators[i]->IsSystemDeletable()) { break; } } } const bool emitting = x450_24_emitting && x28_currentFrame < x2c_LIFE; double evalTime = x28_currentFrame / 60.0; x30_curTime += dt; if (x450_29_transformDirty) { UpdateCachedTransform(); const zeus::CTransform globalOrient = xf8_cachedXf.getRotation(); if (x450_27_haveSSWH) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { CParticleSwoosh& swoosh = *x1e0_swooshGenerators[elec.x0_idx]; swoosh.SetGlobalTranslation(xf8_cachedXf.origin); swoosh.SetGlobalOrientation(globalOrient); swoosh.SetGlobalScale(xe0_globalScale); swoosh.SetLocalScale(xec_localScale); } } if (x450_25_haveGPSM) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { CElementGen& gen = *x400_gpsmGenerators[elec.x0_idx]; gen.SetGlobalTranslation(xf8_cachedXf.origin); gen.SetGlobalOrientation(globalOrient); gen.SetGlobalScale(xe0_globalScale); gen.SetLocalScale(xec_localScale); } } if (x450_26_haveEPSM) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { CElementGen& gen = *x410_epsmGenerators[elec.x0_idx]; gen.SetGlobalTranslation(xf8_cachedXf.origin); gen.SetGlobalOrientation(globalOrient); gen.SetGlobalScale(xe0_globalScale); gen.SetLocalScale(xec_localScale); } } ret = true; } while (evalTime < x30_curTime) { CParticleGlobals::instance()->SetEmitterTime(x28_currentFrame); UpdateElectricalEffects(); if (emitting) AddElectricalEffects(); if (x450_25_haveGPSM) { if (x28_currentFrame >= x2c_LIFE) { for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators[i]->EndLifetime(); } } for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators[i]->Update(1.0 / 60.0); } } if (x450_26_haveEPSM) { if (x28_currentFrame >= x2c_LIFE) { for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators[i]->EndLifetime(); } } for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators[i]->Update(1.0 / 60.0); } } ret = true; evalTime += (1.0 / 60.0); x28_currentFrame += 1; } if (ret) { BuildBounds(); } return ret; } void CParticleElectric::Render(const CActorLights* lights) { SCOPED_GRAPHICS_DEBUG_GROUP(fmt::format(FMT_STRING("CParticleElectric::Render {}"), *x1c_elecDesc.GetObjectTag()).c_str(), zeus::skYellow); if (!x3e8_electricManagers.empty()) { if (x450_29_transformDirty) { UpdateCachedTransform(); } if (x450_27_haveSSWH) { RenderSwooshes(); } if (x450_28_haveLWD) { RenderLines(); } } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators[i]->Render(lights); } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators[i]->Render(lights); } } } void CParticleElectric::SetOrientation(const zeus::CTransform& orientation) { x44_orientation = orientation; x74_invOrientation = x44_orientation.inverse(); x450_29_transformDirty = true; } void CParticleElectric::SetTranslation(const zeus::CVector3f& translation) { x38_translation = translation; x450_29_transformDirty = true; } void CParticleElectric::SetGlobalOrientation(const zeus::CTransform& orientation) { xb0_globalOrientation = orientation; x450_29_transformDirty = true; if (x450_27_haveSSWH) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { CParticleSwoosh& swoosh = *x1e0_swooshGenerators[elec.x0_idx]; swoosh.SetGlobalOrientation(xb0_globalOrientation); } } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators[i]->SetGlobalOrientation(xb0_globalOrientation); } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators[i]->SetGlobalOrientation(xb0_globalOrientation); } } } void CParticleElectric::SetGlobalTranslation(const zeus::CVector3f& translation) { xa4_globalTranslation = translation; x450_29_transformDirty = true; if (x450_27_haveSSWH) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { CParticleSwoosh& swoosh = *x1e0_swooshGenerators[elec.x0_idx]; swoosh.SetGlobalTranslation(xa4_globalTranslation); } } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators[i]->SetGlobalTranslation(xa4_globalTranslation); } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators[i]->SetGlobalTranslation(xa4_globalTranslation); } } } void CParticleElectric::SetGlobalScale(const zeus::CVector3f& scale) { xe0_globalScale = scale; x450_29_transformDirty = true; } void CParticleElectric::SetLocalScale(const zeus::CVector3f& scale) { xec_localScale = scale; x450_29_transformDirty = true; if (x450_27_haveSSWH) { for (const CParticleElectricManager& elec : x3e8_electricManagers) { CParticleSwoosh& swoosh = *x1e0_swooshGenerators[elec.x0_idx]; swoosh.SetLocalScale(xec_localScale); } } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { x400_gpsmGenerators[i]->SetLocalScale(xec_localScale); } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { x410_epsmGenerators[i]->SetLocalScale(xec_localScale); } } } void CParticleElectric::SetParticleEmission(bool emitting) { x450_24_emitting = emitting; } void CParticleElectric::SetModulationColor(const zeus::CColor& color) { x1b8_moduColor = color; } const zeus::CTransform& CParticleElectric::GetOrientation() const { return x44_orientation; } const zeus::CVector3f& CParticleElectric::GetTranslation() const { return x38_translation; } const zeus::CTransform& CParticleElectric::GetGlobalOrientation() const { return xb0_globalOrientation; } const zeus::CVector3f& CParticleElectric::GetGlobalTranslation() const { return xa4_globalTranslation; } const zeus::CVector3f& CParticleElectric::GetGlobalScale() const { return xe0_globalScale; } const zeus::CColor& CParticleElectric::GetModulationColor() const { return x1b8_moduColor; } bool CParticleElectric::IsSystemDeletable() const { if (x450_24_emitting && x28_currentFrame < x2c_LIFE) { return false; } if (!x3e8_electricManagers.empty()) { return false; } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { if (!x400_gpsmGenerators[i]->IsSystemDeletable()) { return false; } } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { if (!x410_epsmGenerators[i]->IsSystemDeletable()) { return false; } } } return true; } std::optional CParticleElectric::GetBounds() const { if (GetParticleCount() <= 0) { return std::nullopt; } return x160_systemBounds; } u32 CParticleElectric::GetParticleCount() const { u32 ret = 0; for (const CParticleElectricManager& elec : x3e8_electricManagers) { if (x450_27_haveSSWH) { ret += x1e0_swooshGenerators[elec.x0_idx]->GetParticleCount(); } if (x450_28_haveLWD) { ret += x150_SSEG; } } if (x450_25_haveGPSM) { for (int i = 0; i < x154_SCNT; ++i) { ret += x400_gpsmGenerators[i]->GetParticleCount(); } } if (x450_26_haveEPSM) { for (int i = 0; i < x154_SCNT; ++i) { ret += x410_epsmGenerators[i]->GetParticleCount(); } } return ret; } bool CParticleElectric::SystemHasLight() const { if (x450_25_haveGPSM) { return x400_gpsmGenerators.front()->SystemHasLight(); } if (x450_26_haveEPSM) { return x410_epsmGenerators.front()->SystemHasLight(); } return false; } CLight CParticleElectric::GetLight() const { if (x450_25_haveGPSM) { return x400_gpsmGenerators.front()->GetLight(); } if (x450_26_haveEPSM) { return x410_epsmGenerators.front()->GetLight(); } return CLight::BuildLocalAmbient(GetGlobalTranslation(), zeus::skOrange); } bool CParticleElectric::GetParticleEmission() const { return x450_24_emitting; } void CParticleElectric::DestroyParticles() { // Empty } } // namespace metaforce