#include "RigInverter.hpp" #include "DataSpec/DNAMP1/CINF.hpp" #include "DataSpec/DNAMP2/CINF.hpp" #include "DataSpec/DNAMP3/CINF.hpp" namespace DataSpec { namespace DNAANIM { template RigInverter::Bone::Bone(const CINFType& cinf, const typename CINFType::Bone& origBone) : m_origBone(origBone) { atUint32 parentIdx = cinf.getInternalBoneIdxFromId(origBone.parentId); zeus::CVector3f boneOrigin(origBone.origin); zeus::CVector3f naturalTail = boneOrigin + zeus::CVector3f{0.f, 0.5f, 0.f}; if (parentIdx != -1) { const typename CINFType::Bone& pBone = cinf.bones[parentIdx]; m_parentDelta = boneOrigin - zeus::CVector3f(pBone.origin); } size_t actualChildren = 0; for (atUint32 chId : origBone.linked) { if (chId == origBone.parentId) continue; atUint32 chIdx = cinf.getInternalBoneIdxFromId(chId); if (chIdx != -1) ++actualChildren; } const std::string* bName = cinf.getBoneNameFromId(origBone.id); bool isLCTR = false; if (bName) isLCTR = bName->find("_LCTR") != std::string::npos; if (parentIdx == -1) { /* Root will always use +Y tail */ m_tail = naturalTail; } else if (actualChildren) { /* Position tail to average of children */ for (atUint32 chId : origBone.linked) { if (chId == origBone.parentId) continue; atUint32 chIdx = cinf.getInternalBoneIdxFromId(chId); if (chIdx != -1) { const typename CINFType::Bone& chBone = cinf.bones[chIdx]; m_tail += chBone.origin; } } m_tail /= float(actualChildren); if ((m_tail - boneOrigin).magSquared() < 0.001f) m_tail = naturalTail; if (isLCTR) m_tail = boneOrigin + zeus::CVector3f{0.f, 1.0f, 0.f} * (m_tail - boneOrigin).magnitude(); } else if (parentIdx != -1) { /* Extrapolate by delta with parent */ m_tail = boneOrigin + m_parentDelta; if (m_parentDelta.magSquared() < 0.001f) m_tail = naturalTail; float deltaMag = m_parentDelta.magnitude(); if (deltaMag > 0.5f) { /* Extreme bones capped to +0.5 value */ deltaMag = 0.5f; m_tail = boneOrigin + m_parentDelta.normalized() * 0.5f; } if (isLCTR) m_tail = boneOrigin + zeus::CVector3f{0.f, 1.0f, 0.f} * deltaMag; } else { /* Fallback to +Y tail */ m_tail = naturalTail; } } template RigInverter::RigInverter(const CINFType& cinf) : m_cinf(cinf) { m_bones.reserve(cinf.bones.size()); for (const typename CINFType::Bone& b : cinf.bones) m_bones.emplace_back(cinf, b); } template RigInverter::RigInverter(const CINFType& cinf, const std::unordered_map& matrices) : m_cinf(cinf) { m_bones.reserve(cinf.bones.size()); for (const typename CINFType::Bone& b : cinf.bones) { m_bones.emplace_back(cinf, b); const std::string* name = cinf.getBoneNameFromId(b.id); if (name) { auto search = matrices.find(*name); if (search != matrices.cend()) { zeus::CMatrix3f boneMtx(search->second[0], search->second[1], search->second[2]); m_bones.back().m_inverter = boneMtx.transposed(); m_bones.back().m_restorer = boneMtx; } } } } template zeus::CQuaternion RigInverter::invertRotation(atUint32 boneId, const zeus::CQuaternion& origRot) const { for (const Bone& b : m_bones) if (b.m_origBone.id == boneId) return b.m_restorer * zeus::CMatrix3f(origRot) * b.m_inverter; return origRot; } template zeus::CVector3f RigInverter::invertPosition(atUint32 boneId, const zeus::CVector3f& origPos, bool subDelta) const { for (const Bone& b : m_bones) if (b.m_origBone.id == boneId) { zeus::CVector3f localPos = origPos; if (subDelta) localPos -= b.m_parentDelta; return b.m_restorer * localPos; } return origPos; } template zeus::CQuaternion RigInverter::restoreRotation(atUint32 boneId, const zeus::CQuaternion& origRot) const { for (const Bone& b : m_bones) if (b.m_origBone.id == boneId) return b.m_inverter * zeus::CMatrix3f(origRot) * b.m_restorer; return origRot; } template zeus::CVector3f RigInverter::restorePosition(atUint32 boneId, const zeus::CVector3f& origPos, bool subDelta) const { for (const Bone& b : m_bones) if (b.m_origBone.id == boneId) { zeus::CVector3f localPos = b.m_inverter * origPos; if (subDelta) localPos += b.m_parentDelta; return localPos; } return origPos; } template class RigInverter; template class RigInverter; template class RigInverter; } }