#include "global.h" #include "terminal.h" #define ANIM_INTERP 1 s32 LinkAnimation_Loop(PlayState* play, SkelAnime* skelAnime); s32 LinkAnimation_Once(PlayState* play, SkelAnime* skelAnime); s32 SkelAnime_LoopFull(SkelAnime* skelAnime); s32 SkelAnime_Once(SkelAnime* skelAnime); s32 SkelAnime_LoopPartial(SkelAnime* skelAnime); /** * Draw a limb of type `LodLimb` * Near or far display list is specified via `lod` */ void SkelAnime_DrawLimbLod(PlayState* play, s32 limbIndex, void** skeleton, Vec3s* jointTable, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg, s32 lod) { LodLimb* limb; Gfx* dList; Vec3f pos; Vec3s rot; OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 773); Matrix_Push(); limb = (LodLimb*)SEGMENTED_TO_VIRTUAL(skeleton[limbIndex]); limbIndex++; rot = jointTable[limbIndex]; pos.x = limb->jointPos.x; pos.y = limb->jointPos.y; pos.z = limb->jointPos.z; dList = limb->dLists[lod]; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, limbIndex, &dList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (dList != NULL) { MATRIX_FINALIZE_AND_LOAD(POLY_OPA_DISP++, play->state.gfxCtx, "../z_skelanime.c", 805); gSPDisplayList(POLY_OPA_DISP++, dList); } } if (postLimbDraw != NULL) { postLimbDraw(play, limbIndex, &dList, &rot, arg); } if (limb->child != LIMB_DONE) { SkelAnime_DrawLimbLod(play, limb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, lod); } Matrix_Pop(); if (limb->sibling != LIMB_DONE) { SkelAnime_DrawLimbLod(play, limb->sibling, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, lod); } CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 821); } /** * Draw all limbs of type `LodLimb` in a given skeleton * Near or far display list is specified via `lod` */ void SkelAnime_DrawLod(PlayState* play, void** skeleton, Vec3s* jointTable, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg, s32 lod) { LodLimb* rootLimb; s32 pad; Gfx* dList; Vec3f pos; Vec3s rot; if (skeleton == NULL) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Si2_Lod_draw():skelがNULLです。\n", "Si2_Lod_draw(): skel is NULL.\n")); PRINTF(VT_RST); return; } OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 849); Matrix_Push(); rootLimb = (LodLimb*)SEGMENTED_TO_VIRTUAL(skeleton[0]); pos.x = jointTable[0].x; pos.y = jointTable[0].y; pos.z = jointTable[0].z; rot = jointTable[1]; dList = rootLimb->dLists[lod]; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, 1, &dList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (dList != NULL) { MATRIX_FINALIZE_AND_LOAD(POLY_OPA_DISP++, play->state.gfxCtx, "../z_skelanime.c", 881); gSPDisplayList(POLY_OPA_DISP++, dList); } } if (postLimbDraw != NULL) { postLimbDraw(play, 1, &dList, &rot, arg); } if (rootLimb->child != LIMB_DONE) { SkelAnime_DrawLimbLod(play, rootLimb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, lod); } Matrix_Pop(); CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 894); } /** * Draw a limb of type `LodLimb` contained within a flexible skeleton * Near or far display list is specified via `lod` */ void SkelAnime_DrawFlexLimbLod(PlayState* play, s32 limbIndex, void** skeleton, Vec3s* jointTable, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg, s32 lod, Mtx** mtx) { LodLimb* limb; Gfx* newDList; Gfx* limbDList; Vec3f pos; Vec3s rot; Matrix_Push(); limb = (LodLimb*)SEGMENTED_TO_VIRTUAL(skeleton[limbIndex]); limbIndex++; rot = jointTable[limbIndex]; pos.x = limb->jointPos.x; pos.y = limb->jointPos.y; pos.z = limb->jointPos.z; newDList = limbDList = limb->dLists[lod]; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, limbIndex, &newDList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (newDList != NULL) { MATRIX_TO_MTX(*mtx, "../z_skelanime.c", 945); { OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 946); gSPMatrix(POLY_OPA_DISP++, *mtx, G_MTX_NOPUSH | G_MTX_LOAD | G_MTX_MODELVIEW); gSPDisplayList(POLY_OPA_DISP++, newDList); CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 949); } (*mtx)++; } else if (limbDList != NULL) { if (1) {} MATRIX_TO_MTX(*mtx, "../z_skelanime.c", 954); (*mtx)++; } } if (postLimbDraw != NULL) { postLimbDraw(play, limbIndex, &limbDList, &rot, arg); } if (limb->child != LIMB_DONE) { SkelAnime_DrawFlexLimbLod(play, limb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, lod, mtx); } Matrix_Pop(); if (limb->sibling != LIMB_DONE) { SkelAnime_DrawFlexLimbLod(play, limb->sibling, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, lod, mtx); } } /** * Draws all limbs of type `LodLimb` in a given flexible skeleton * Limbs in a flexible skeleton have meshes that can stretch to line up with other limbs. * An array of matrices is dynamically allocated so each limb can access any transform to ensure its meshes line up. */ void SkelAnime_DrawFlexLod(PlayState* play, void** skeleton, Vec3s* jointTable, s32 dListCount, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg, s32 lod) { LodLimb* rootLimb; s32 pad; Gfx* newDList; Gfx* limbDList; Vec3f pos; Vec3s rot; Mtx* mtx = GRAPH_ALLOC(play->state.gfxCtx, dListCount * sizeof(Mtx)); if (skeleton == NULL) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Si2_Lod_draw_SV():skelがNULLです。\n", "Si2_Lod_draw_SV(): skel is NULL.\n")); PRINTF(VT_RST); return; } OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1000); gSPSegment(POLY_OPA_DISP++, 0xD, mtx); Matrix_Push(); rootLimb = (LodLimb*)SEGMENTED_TO_VIRTUAL(skeleton[0]); pos.x = jointTable[0].x; pos.y = jointTable[0].y; pos.z = jointTable[0].z; rot = jointTable[1]; newDList = limbDList = rootLimb->dLists[lod]; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, 1, &newDList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (newDList != NULL) { MATRIX_TO_MTX(mtx, "../z_skelanime.c", 1033); gSPMatrix(POLY_OPA_DISP++, mtx, G_MTX_NOPUSH | G_MTX_LOAD | G_MTX_MODELVIEW); gSPDisplayList(POLY_OPA_DISP++, newDList); mtx++; } else if (limbDList != NULL) { MATRIX_TO_MTX(mtx, "../z_skelanime.c", 1040); mtx++; } } if (postLimbDraw != NULL) { postLimbDraw(play, 1, &limbDList, &rot, arg); } if (rootLimb->child != LIMB_DONE) { SkelAnime_DrawFlexLimbLod(play, rootLimb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, lod, &mtx); } Matrix_Pop(); CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1053); } /** * Draw a limb of type `StandardLimb` to the polyOpa buffer */ void SkelAnime_DrawLimbOpa(PlayState* play, s32 limbIndex, void** skeleton, Vec3s* jointTable, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg) { StandardLimb* limb; Gfx* dList; Vec3f pos; Vec3s rot; OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1076); Matrix_Push(); limb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[limbIndex]); limbIndex++; rot = jointTable[limbIndex]; pos.x = limb->jointPos.x; pos.y = limb->jointPos.y; pos.z = limb->jointPos.z; dList = limb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, limbIndex, &dList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (dList != NULL) { MATRIX_FINALIZE_AND_LOAD(POLY_OPA_DISP++, play->state.gfxCtx, "../z_skelanime.c", 1103); gSPDisplayList(POLY_OPA_DISP++, dList); } } if (postLimbDraw != NULL) { postLimbDraw(play, limbIndex, &dList, &rot, arg); } if (limb->child != LIMB_DONE) { SkelAnime_DrawLimbOpa(play, limb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg); } Matrix_Pop(); if (limb->sibling != LIMB_DONE) { SkelAnime_DrawLimbOpa(play, limb->sibling, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg); } CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1121); } /** * Draw all limbs of type `StandardLimb` in a given skeleton to the polyOpa buffer */ void SkelAnime_DrawOpa(PlayState* play, void** skeleton, Vec3s* jointTable, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg) { StandardLimb* rootLimb; s32 pad; Gfx* dList; Vec3f pos; Vec3s rot; if (skeleton == NULL) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Si2_draw():skelがNULLです。\n", "Si2_draw(): skel is NULL.\n")); PRINTF(VT_RST); return; } OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1148); Matrix_Push(); rootLimb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[0]); pos.x = jointTable[0].x; pos.y = jointTable[0].y; pos.z = jointTable[0].z; rot = jointTable[1]; dList = rootLimb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, 1, &dList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (dList != NULL) { MATRIX_FINALIZE_AND_LOAD(POLY_OPA_DISP++, play->state.gfxCtx, "../z_skelanime.c", 1176); gSPDisplayList(POLY_OPA_DISP++, dList); } } if (postLimbDraw != NULL) { postLimbDraw(play, 1, &dList, &rot, arg); } if (rootLimb->child != LIMB_DONE) { SkelAnime_DrawLimbOpa(play, rootLimb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg); } Matrix_Pop(); CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1190); } /** * Draw a limb of type `StandardLimb` contained within a flexible skeleton to the polyOpa buffer */ void SkelAnime_DrawFlexLimbOpa(PlayState* play, s32 limbIndex, void** skeleton, Vec3s* jointTable, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg, Mtx** limbMatrices) { StandardLimb* limb; Gfx* newDList; Gfx* limbDList; Vec3f pos; Vec3s rot; OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1214); Matrix_Push(); limb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[limbIndex]); limbIndex++; rot = jointTable[limbIndex]; pos.x = limb->jointPos.x; pos.y = limb->jointPos.y; pos.z = limb->jointPos.z; newDList = limbDList = limb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, limbIndex, &newDList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (newDList != NULL) { MATRIX_TO_MTX(*limbMatrices, "../z_skelanime.c", 1242); gSPMatrix(POLY_OPA_DISP++, *limbMatrices, G_MTX_NOPUSH | G_MTX_LOAD | G_MTX_MODELVIEW); gSPDisplayList(POLY_OPA_DISP++, newDList); (*limbMatrices)++; } else if (limbDList != NULL) { if (1) {} MATRIX_TO_MTX(*limbMatrices, "../z_skelanime.c", 1249); (*limbMatrices)++; } } if (postLimbDraw != NULL) { postLimbDraw(play, limbIndex, &limbDList, &rot, arg); } if (limb->child != LIMB_DONE) { SkelAnime_DrawFlexLimbOpa(play, limb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, limbMatrices); } Matrix_Pop(); if (limb->sibling != LIMB_DONE) { SkelAnime_DrawFlexLimbOpa(play, limb->sibling, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, limbMatrices); } CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1265); } /** * Draw all limbs of type `StandardLimb` in a given flexible skeleton to the polyOpa buffer * Limbs in a flexible skeleton have meshes that can stretch to line up with other limbs. * An array of matrices is dynamically allocated so each limb can access any transform to ensure its meshes line up. */ void SkelAnime_DrawFlexOpa(PlayState* play, void** skeleton, Vec3s* jointTable, s32 dListCount, OverrideLimbDrawOpa overrideLimbDraw, PostLimbDrawOpa postLimbDraw, void* arg) { StandardLimb* rootLimb; s32 pad; Gfx* newDList; Gfx* limbDList; Vec3f pos; Vec3s rot; Mtx* mtx = GRAPH_ALLOC(play->state.gfxCtx, dListCount * sizeof(Mtx)); if (skeleton == NULL) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Si2_draw_SV():skelがNULLです。\n", "Si2_draw_SV(): skel is NULL.\n")); PRINTF(VT_RST); return; } OPEN_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1294); gSPSegment(POLY_OPA_DISP++, 0xD, mtx); Matrix_Push(); rootLimb = SEGMENTED_TO_VIRTUAL(skeleton[0]); pos.x = jointTable[0].x; pos.y = jointTable[0].y; pos.z = jointTable[0].z; rot = jointTable[1]; newDList = limbDList = rootLimb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, 1, &newDList, &pos, &rot, arg)) { Matrix_TranslateRotateZYX(&pos, &rot); if (newDList != NULL) { MATRIX_TO_MTX(mtx, "../z_skelanime.c", 1327); gSPMatrix(POLY_OPA_DISP++, mtx, G_MTX_NOPUSH | G_MTX_LOAD | G_MTX_MODELVIEW); gSPDisplayList(POLY_OPA_DISP++, newDList); mtx++; } else if (limbDList != NULL) { MATRIX_TO_MTX(mtx, "../z_skelanime.c", 1334); mtx++; } } if (postLimbDraw != NULL) { postLimbDraw(play, 1, &limbDList, &rot, arg); } if (rootLimb->child != LIMB_DONE) { SkelAnime_DrawFlexLimbOpa(play, rootLimb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, &mtx); } Matrix_Pop(); CLOSE_DISPS(play->state.gfxCtx, "../z_skelanime.c", 1347); } /** * Copies frame data from the frame data table, indexed by the joint index table. * Indices below limit are copied from that entry in the static frame data table. * Indices above limit are offsets to a frame data array indexed by the frame. */ void SkelAnime_GetFrameData(AnimationHeader* animation, s32 frame, s32 limbCount, Vec3s* frameTable) { AnimationHeader* animHeader = SEGMENTED_TO_VIRTUAL(animation); JointIndex* jointIndices = SEGMENTED_TO_VIRTUAL(animHeader->jointIndices); s16* frameData = SEGMENTED_TO_VIRTUAL(animHeader->frameData); s16* staticData = &frameData[0]; s16* dynamicData = &frameData[frame]; u16 staticIndexMax = animHeader->staticIndexMax; s32 i; for (i = 0; i < limbCount; i++) { if ((frameTable == NULL) || (jointIndices == NULL) || (dynamicData == NULL) || (staticData == NULL)) { LOG_ADDRESS("out", frameTable, "../z_skelanime.c", 1392); LOG_ADDRESS("ref_tbl", jointIndices, "../z_skelanime.c", 1393); LOG_ADDRESS("frame_tbl", dynamicData, "../z_skelanime.c", 1394); LOG_ADDRESS("tbl", staticData, "../z_skelanime.c", 1395); } frameTable->x = (jointIndices->x >= staticIndexMax) ? dynamicData[jointIndices->x] : staticData[jointIndices->x]; frameTable->y = (jointIndices->y >= staticIndexMax) ? dynamicData[jointIndices->y] : staticData[jointIndices->y]; frameTable->z = (jointIndices->z >= staticIndexMax) ? dynamicData[jointIndices->z] : staticData[jointIndices->z]; jointIndices++; frameTable++; } } s16 Animation_GetLength(void* animation) { AnimationHeaderCommon* common = SEGMENTED_TO_VIRTUAL(animation); return common->frameCount; } s16 Animation_GetLastFrame(void* animation) { AnimationHeaderCommon* common = SEGMENTED_TO_VIRTUAL(animation); // Loads an unsigned half for some reason. return (u16)common->frameCount - 1; } /** * Draw a limb of type `StandardLimb` to the specified display buffer */ Gfx* SkelAnime_DrawLimb(PlayState* play, s32 limbIndex, void** skeleton, Vec3s* jointTable, OverrideLimbDraw overrideLimbDraw, PostLimbDraw postLimbDraw, void* arg, Gfx* gfx) { StandardLimb* limb; Gfx* dList; Vec3f pos; Vec3s rot; Matrix_Push(); limb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[limbIndex]); limbIndex++; rot = jointTable[limbIndex]; pos.x = limb->jointPos.x; pos.y = limb->jointPos.y; pos.z = limb->jointPos.z; dList = limb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, limbIndex, &dList, &pos, &rot, arg, &gfx)) { Matrix_TranslateRotateZYX(&pos, &rot); if (dList != NULL) { MATRIX_FINALIZE_AND_LOAD(gfx++, play->state.gfxCtx, "../z_skelanime.c", 1489); gSPDisplayList(gfx++, dList); } } if (postLimbDraw != NULL) { postLimbDraw(play, limbIndex, &dList, &rot, arg, &gfx); } if (limb->child != LIMB_DONE) { gfx = SkelAnime_DrawLimb(play, limb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, gfx); } Matrix_Pop(); if (limb->sibling != LIMB_DONE) { gfx = SkelAnime_DrawLimb(play, limb->sibling, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, gfx); } return gfx; } /** * Draw all limbs of type `StandardLimb` in a given skeleton to the specified display buffer */ Gfx* SkelAnime_Draw(PlayState* play, void** skeleton, Vec3s* jointTable, OverrideLimbDraw overrideLimbDraw, PostLimbDraw postLimbDraw, void* arg, Gfx* gfx) { StandardLimb* rootLimb; s32 pad; Gfx* dList; Vec3f pos; Vec3s rot; if (skeleton == NULL) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Si2_draw2():skelがNULLです。NULLを返します。\n", "Si2_draw2(): skel is NULL. Returns NULL.\n")); PRINTF(VT_RST); return NULL; } Matrix_Push(); rootLimb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[0]); pos.x = jointTable[0].x; pos.y = jointTable[0].y; pos.z = jointTable[0].z; rot = jointTable[1]; dList = rootLimb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, 1, &dList, &pos, &rot, arg, &gfx)) { Matrix_TranslateRotateZYX(&pos, &rot); if (dList != NULL) { MATRIX_FINALIZE_AND_LOAD(gfx++, play->state.gfxCtx, "../z_skelanime.c", 1558); gSPDisplayList(gfx++, dList); } } if (postLimbDraw != NULL) { postLimbDraw(play, 1, &dList, &rot, arg, &gfx); } if (rootLimb->child != LIMB_DONE) { gfx = SkelAnime_DrawLimb(play, rootLimb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, gfx); } Matrix_Pop(); return gfx; } /** * Draw a limb of type `StandardLimb` contained within a flexible skeleton to the specified display buffer */ Gfx* SkelAnime_DrawFlexLimb(PlayState* play, s32 limbIndex, void** skeleton, Vec3s* jointTable, OverrideLimbDraw overrideLimbDraw, PostLimbDraw postLimbDraw, void* arg, Mtx** mtx, Gfx* gfx) { StandardLimb* limb; Gfx* newDList; Gfx* limbDList; Vec3f pos; Vec3s rot; Matrix_Push(); limb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[limbIndex]); limbIndex++; rot = jointTable[limbIndex]; pos.x = limb->jointPos.x; pos.y = limb->jointPos.y; pos.z = limb->jointPos.z; newDList = limbDList = limb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, limbIndex, &newDList, &pos, &rot, arg, &gfx)) { Matrix_TranslateRotateZYX(&pos, &rot); if (newDList != NULL) { MATRIX_TO_MTX(*mtx, "../z_skelanime.c", 1623); gSPMatrix(gfx++, *mtx, G_MTX_NOPUSH | G_MTX_LOAD | G_MTX_MODELVIEW); gSPDisplayList(gfx++, newDList); (*mtx)++; } else if (limbDList != NULL) { MATRIX_TO_MTX(*mtx, "../z_skelanime.c", 1630); (*mtx)++; } } if (postLimbDraw != NULL) { postLimbDraw(play, limbIndex, &limbDList, &rot, arg, &gfx); } if (limb->child != LIMB_DONE) { gfx = SkelAnime_DrawFlexLimb(play, limb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, mtx, gfx); } Matrix_Pop(); if (limb->sibling != LIMB_DONE) { gfx = SkelAnime_DrawFlexLimb(play, limb->sibling, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, mtx, gfx); } return gfx; } /** * Draw all limbs of type `StandardLimb` in a given flexible skeleton to the specified display buffer * Limbs in a flexible skeleton have meshes that can stretch to line up with other limbs. * An array of matrices is dynamically allocated so each limb can access any transform to ensure its meshes line up. */ Gfx* SkelAnime_DrawFlex(PlayState* play, void** skeleton, Vec3s* jointTable, s32 dListCount, OverrideLimbDraw overrideLimbDraw, PostLimbDraw postLimbDraw, void* arg, Gfx* gfx) { StandardLimb* rootLimb; s32 pad; Gfx* newDList; Gfx* limbDList; Vec3f pos; Vec3s rot; Mtx* mtx = GRAPH_ALLOC(play->state.gfxCtx, dListCount * sizeof(*mtx)); if (skeleton == NULL) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Si2_draw2_SV():skelがNULLです。NULLを返します。\n", "Si2_draw2_SV(): skel is NULL. Returns NULL.\n")); PRINTF(VT_RST); return NULL; } gSPSegment(gfx++, 0xD, mtx); Matrix_Push(); rootLimb = (StandardLimb*)SEGMENTED_TO_VIRTUAL(skeleton[0]); pos.x = jointTable[0].x; pos.y = jointTable[0].y; pos.z = jointTable[0].z; rot = jointTable[1]; newDList = limbDList = rootLimb->dList; if ((overrideLimbDraw == NULL) || !overrideLimbDraw(play, 1, &newDList, &pos, &rot, arg, &gfx)) { Matrix_TranslateRotateZYX(&pos, &rot); if (newDList != NULL) { MATRIX_TO_MTX(mtx, "../z_skelanime.c", 1710); gSPMatrix(gfx++, mtx, G_MTX_NOPUSH | G_MTX_LOAD | G_MTX_MODELVIEW); gSPDisplayList(gfx++, newDList); mtx++; } else if (limbDList != NULL) { MATRIX_TO_MTX(mtx, "../z_skelanime.c", 1717); mtx++; } } if (postLimbDraw != NULL) { postLimbDraw(play, 1, &limbDList, &rot, arg, &gfx); } if (rootLimb->child != LIMB_DONE) { gfx = SkelAnime_DrawFlexLimb(play, rootLimb->child, skeleton, jointTable, overrideLimbDraw, postLimbDraw, arg, &mtx, gfx); } Matrix_Pop(); return gfx; } /** * Unpacks frame data for the animation at the given frame into frameTable * Used by the legacy animation format */ s32 SkelAnime_GetFrameDataLegacy(LegacyAnimationHeader* animation, s32 frame, Vec3s* frameTable) { LegacyAnimationHeader* animHeader = SEGMENTED_TO_VIRTUAL(animation); s32 limbCount = animHeader->limbCount; LegacyJointKey* key = SEGMENTED_TO_VIRTUAL(animHeader->jointKey); s16* frameData = SEGMENTED_TO_VIRTUAL(animHeader->frameData); s16* staticData = &frameData[0]; s16* dynamicData = &frameData[frame]; s32 i; frameTable->x = frame < key->xMax ? dynamicData[key->x] : staticData[key->x]; frameTable->y = frame < key->yMax ? dynamicData[key->y] : staticData[key->y]; frameTable->z = frame < key->zMax ? dynamicData[key->z] : staticData[key->z]; frameTable++; key++; for (i = 1; i <= limbCount; i++, key++, frameTable++) { frameTable->x = frame < key->xMax ? dynamicData[key->x] : staticData[key->x]; frameTable->y = frame < key->yMax ? dynamicData[key->y] : staticData[key->y]; frameTable->z = frame < key->zMax ? dynamicData[key->z] : staticData[key->z]; } return limbCount; } /** * Used by legacy animation format */ s16 Animation_GetLimbCountLegacy(LegacyAnimationHeader* animation) { LegacyAnimationHeader* animHeader = SEGMENTED_TO_VIRTUAL(animation); return animHeader->limbCount; } /** * Used by legacy animation format */ s16 Animation_GetLengthLegacy(LegacyAnimationHeader* animation) { LegacyAnimationHeader* animHeader = SEGMENTED_TO_VIRTUAL(animation); return animHeader->frameCount; } /** * Used by legacy animation format */ s16 Animation_GetLastFrameLegacy(LegacyAnimationHeader* animation) { LegacyAnimationHeader* animHeader = SEGMENTED_TO_VIRTUAL(animation); return animHeader->frameCount - 1; } /** * Linearly interpolates the start and target frame tables with the given weight, putting the result in dst */ void SkelAnime_InterpFrameTable(s32 limbCount, Vec3s* dst, Vec3s* start, Vec3s* target, f32 weight) { s32 i; s16 diff; s16 base; if (weight < 1.0f) { for (i = 0; i < limbCount; i++, dst++, start++, target++) { base = start->x; diff = target->x - base; dst->x = (s16)(diff * weight) + base; base = start->y; diff = target->y - base; dst->y = (s16)(diff * weight) + base; base = start->z; diff = target->z - base; dst->z = (s16)(diff * weight) + base; } } else { for (i = 0; i < limbCount; i++, dst++, target++) { dst->x = target->x; dst->y = target->y; dst->z = target->z; } } } static u32 sDisabledTransformTaskGroups = 0; static u32 sCurAnimTaskGroup; /** * Clear the current task queue. The discarded tasks will then not be processed. */ void AnimTaskQueue_Reset(AnimTaskQueue* animTaskQueue) { animTaskQueue->count = 0; } /** * Changes `sCurAnimTaskGroup` to the next group number. * * Task groups allow for disabling "transformative" tasks for a defined group. * For more information see `AnimTaskQueue_DisableTransformTasksForGroup`. * * Note that `sCurAnimTaskGroup` is not a whole number that increments, it is handled at the bit-level. * Every time the group number changes, a single bit moves 1 position to the left. This is an implementation detail * that allows for `sDisabledTransformTaskGroups` to compare against a set of bit flags. */ void AnimTaskQueue_SetNextGroup(PlayState* play) { sCurAnimTaskGroup <<= 1; } /** * Marks the current task group as disabled so that "transformative" tasks are skipped. * A transformative task is one that will alter the appearance of an animation. * These include Copy, Interp, CopyUsingMap, and CopyUsingMapInverted. * * LoadPlayerFrame and ActorMovement, which don't alter the appearance of an existing animation, * will always run even if a group has its transformative tasks disabled. */ void AnimTaskQueue_DisableTransformTasksForGroup(PlayState* play) { sDisabledTransformTaskGroups |= sCurAnimTaskGroup; } /** * Creates a new task and adds it to the queue, if there is room for it. * * The `type` value for the task gets set here, but all other * initialization must be handled by the caller. * * @return a pointer to the task, or NULL if it could not be added */ AnimTask* AnimTaskQueue_NewTask(AnimTaskQueue* animTaskQueue, s32 type) { AnimTask* task; s16 taskNumber = animTaskQueue->count; if (taskNumber >= ANIM_TASK_QUEUE_MAX) { return NULL; } animTaskQueue->count = taskNumber + 1; task = &animTaskQueue->tasks[taskNumber]; task->type = type; return task; } #if PLATFORM_N64 #define LINK_ANIMATION_OFFSET(addr, offset) \ (((uintptr_t)_link_animetionSegmentRomStart) + SEGMENT_OFFSET(addr) + (offset)) #else #define LINK_ANIMATION_OFFSET(addr, offset) \ (((uintptr_t)_link_animetionSegmentRomStart) + ((uintptr_t)(addr)) - ((uintptr_t)_link_animetionSegmentStart) + \ (offset)) #endif /** * Creates a task which will load a single frame of animation data from the link_animetion file. * The asynchronous DMA request to load the data is made as soon as the task is created. * When the task is processed later in the AnimTaskQueue, it will wait for the DMA to finish. */ void AnimTaskQueue_AddLoadPlayerFrame(PlayState* play, LinkAnimationHeader* animation, s32 frame, s32 limbCount, Vec3s* frameTable) { AnimTask* task = AnimTaskQueue_NewTask(&play->animTaskQueue, ANIMTASK_LOAD_PLAYER_FRAME); if (task != NULL) { LinkAnimationHeader* linkAnimHeader = SEGMENTED_TO_VIRTUAL(animation); s32 pad; osCreateMesgQueue(&task->data.loadPlayerFrame.msgQueue, &task->data.loadPlayerFrame.msg, 1); DMA_REQUEST_ASYNC(&task->data.loadPlayerFrame.req, frameTable, LINK_ANIMATION_OFFSET(linkAnimHeader->segment, ((sizeof(Vec3s) * limbCount + 2) * frame)), sizeof(Vec3s) * limbCount + 2, 0, &task->data.loadPlayerFrame.msgQueue, NULL, "../z_skelanime.c", 2004); } } /** * Creates a task which will copy all vectors from the `src` frame table to the `dest` frame table. * * Note: This task is "transformative", meaning it will alter the appearance of an animation. * If this task's group is included in `sDisabledTransformTaskGroups`, this task will be skipped for that frame. */ void AnimTaskQueue_AddCopy(PlayState* play, s32 vecCount, Vec3s* dest, Vec3s* src) { AnimTask* task = AnimTaskQueue_NewTask(&play->animTaskQueue, ANIMTASK_COPY); if (task != NULL) { task->data.copy.group = sCurAnimTaskGroup; task->data.copy.vecCount = vecCount; task->data.copy.dest = dest; task->data.copy.src = src; } } /** * Creates a task which will interpolate between the `base` and `mod` frame tables. * The result of the interpolation will be placed in the original `base` table. * * Note: This task is "transformative", meaning it will alter the appearance of an animation. * If this task's group is included in `sDisabledTransformTaskGroups`, this task will be skipped for that frame. */ void AnimTaskQueue_AddInterp(PlayState* play, s32 vecCount, Vec3s* base, Vec3s* mod, f32 weight) { AnimTask* task = AnimTaskQueue_NewTask(&play->animTaskQueue, ANIMTASK_INTERP); if (task != NULL) { task->data.interp.group = sCurAnimTaskGroup; task->data.interp.vecCount = vecCount; task->data.interp.base = base; task->data.interp.mod = mod; task->data.interp.weight = weight; } } /** * Creates a task which will copy specified vectors from the `src` frame table to the `dest` frame table. * Exactly which vectors will be copied is specified by the `limbCopyMap`. * * The copy map is an array of true/false flags that specify which limbs should have their data copied. * Each index of the map corresponds to a limb number in the skeleton. * Every limb that has `true` listed will have its data copied. * * Note: This task is "transformative", meaning it will alter the appearance of an animation. * If this task's group is included in `sDisabledTransformTaskGroups`, this task will be skipped for that frame. */ void AnimTaskQueue_AddCopyUsingMap(PlayState* play, s32 vecCount, Vec3s* dest, Vec3s* src, u8* limbCopyMap) { AnimTask* task = AnimTaskQueue_NewTask(&play->animTaskQueue, ANIMTASK_COPY_USING_MAP); if (task != NULL) { task->data.copyUsingMap.group = sCurAnimTaskGroup; task->data.copyUsingMap.vecCount = vecCount; task->data.copyUsingMap.dest = dest; task->data.copyUsingMap.src = src; task->data.copyUsingMap.limbCopyMap = limbCopyMap; } } /** * Identical to `AnimTaskQueue_AddCopyUsingMap`, except the meaning of the flags in the `limbCopyMap` are inverted. * Any entry that specifies `false` will be copied, and any entry that specifies `true` will not. * * Note: This task is "transformative", meaning it will alter the appearance of an animation. * If this task's group is included in `sDisabledTransformTaskGroups`, this task will be skipped for that frame. */ void AnimTaskQueue_AddCopyUsingMapInverted(PlayState* play, s32 vecCount, Vec3s* dest, Vec3s* src, u8* limbCopyMap) { AnimTask* task = AnimTaskQueue_NewTask(&play->animTaskQueue, ANIMTASK_COPY_USING_MAP_INVERTED); if (task != NULL) { task->data.copyUsingMapInverted.group = sCurAnimTaskGroup; task->data.copyUsingMapInverted.vecCount = vecCount; task->data.copyUsingMapInverted.dest = dest; task->data.copyUsingMapInverted.src = src; task->data.copyUsingMapInverted.limbCopyMap = limbCopyMap; } } /** * Creates a task which will move an actor according to the translation of its root limb for the current frame. */ void AnimTaskQueue_AddActorMovement(PlayState* play, Actor* actor, SkelAnime* skelAnime, f32 moveDiffScaleY) { AnimTask* task = AnimTaskQueue_NewTask(&play->animTaskQueue, ANIMTASK_ACTOR_MOVE); if (task != NULL) { task->data.actorMovement.actor = actor; task->data.actorMovement.skelAnime = skelAnime; task->data.actorMovement.diffScaleY = moveDiffScaleY; } } /** * Wait for the DMA request submitted by `AnimTaskQueue_AddLoadPlayerFrame` to complete. */ void AnimTask_LoadPlayerFrame(PlayState* play, AnimTaskData* data) { AnimTaskLoadPlayerFrame* task = &data->loadPlayerFrame; osRecvMesg(&task->msgQueue, NULL, OS_MESG_BLOCK); } /** * Copy all data from the `src` frame table to the `dest` table. */ void AnimTask_Copy(PlayState* play, AnimTaskData* data) { AnimTaskCopy* task = &data->copy; if (!(task->group & sDisabledTransformTaskGroups)) { Vec3s* dest = task->dest; Vec3s* src = task->src; s32 i; for (i = 0; i < task->vecCount; i++) { *dest++ = *src++; } } } /** * Interpolate between the `base` and `mod` frame tables. */ void AnimTask_Interp(PlayState* play, AnimTaskData* data) { AnimTaskInterp* task = &data->interp; if (!(task->group & sDisabledTransformTaskGroups)) { SkelAnime_InterpFrameTable(task->vecCount, task->base, task->base, task->mod, task->weight); } } /** * Copy all data from the `src` frame table to the `dest` table according to the copy map. */ void AnimTask_CopyUsingMap(PlayState* play, AnimTaskData* data) { AnimTaskCopyUsingMap* task = &data->copyUsingMap; if (!(task->group & sDisabledTransformTaskGroups)) { Vec3s* dest = task->dest; Vec3s* src = task->src; u8* limbCopyMap = task->limbCopyMap; s32 i; for (i = 0; i < task->vecCount; i++, dest++, src++) { if (*limbCopyMap++) { *dest = *src; } } } } /** * Copy all data from the `src` frame table to the `dest` table according to the inverted copy map. */ void AnimTask_CopyUsingMapInverted(PlayState* play, AnimTaskData* data) { AnimTaskCopyUsingMapInverted* task = &data->copyUsingMapInverted; if (!(task->group & sDisabledTransformTaskGroups)) { Vec3s* dest = task->dest; Vec3s* src = task->src; u8* limbCopyMap = task->limbCopyMap; s32 i; for (i = 0; i < task->vecCount; i++, dest++, src++) { if (!(*limbCopyMap++)) { *dest = *src; } } } } /** * Move an actor according to the translation of its root limb for the current animation frame. * The actor's current shape yaw will factor into the resulting movement. */ void AnimTask_ActorMovement(PlayState* play, AnimTaskData* data) { AnimTaskActorMovement* task = &data->actorMovement; Actor* actor = task->actor; Vec3f diff; SkelAnime_UpdateTranslation(task->skelAnime, &diff, actor->shape.rot.y); actor->world.pos.x += diff.x * actor->scale.x; actor->world.pos.y += diff.y * actor->scale.y * task->diffScaleY; actor->world.pos.z += diff.z * actor->scale.z; } typedef void (*AnimTaskFunc)(struct PlayState* play, AnimTaskData* data); /** * Update the AnimTaskQueue, processing all tasks in order. * Variables related to anim task groups are then reset for the next frame. */ void AnimTaskQueue_Update(PlayState* play, AnimTaskQueue* animTaskQueue) { static AnimTaskFunc animTaskFuncs[] = { AnimTask_LoadPlayerFrame, AnimTask_Copy, AnimTask_Interp, AnimTask_CopyUsingMap, AnimTask_CopyUsingMapInverted, AnimTask_ActorMovement, }; AnimTask* task = animTaskQueue->tasks; while (animTaskQueue->count != 0) { animTaskFuncs[task->type](play, &task->data); task++; animTaskQueue->count--; } sCurAnimTaskGroup = 1 << 0; sDisabledTransformTaskGroups = 0; } /** * Initializes a skeleton to be used with Link animations to a looping animation, dynamically allocating the frame * tables if not given. */ void SkelAnime_InitLink(PlayState* play, SkelAnime* skelAnime, FlexSkeletonHeader* skeletonHeaderSeg, LinkAnimationHeader* animation, s32 flags, Vec3s* jointTable, Vec3s* morphTable, s32 limbBufCount) { FlexSkeletonHeader* skeletonHeader = SEGMENTED_TO_VIRTUAL(skeletonHeaderSeg); s32 headerJointCount = skeletonHeader->sh.limbCount; s32 limbCount; size_t allocSize; skelAnime->initFlags = flags; limbCount = (flags & 2) ? headerJointCount : 1; if (flags & 1) { limbCount += headerJointCount; } if (flags & 4) { limbCount += headerJointCount; } skelAnime->limbCount = limbCount; skelAnime->dListCount = skeletonHeader->dListCount; allocSize = limbCount * sizeof(Vec3s); skelAnime->skeleton = SEGMENTED_TO_VIRTUAL(skeletonHeader->sh.segment); if (flags & 8) { allocSize += 2; } if (jointTable == NULL) { skelAnime->jointTable = ZELDA_ARENA_MALLOC(allocSize, "../z_skelanime.c", 2364); skelAnime->morphTable = ZELDA_ARENA_MALLOC(allocSize, "../z_skelanime.c", 2365); } else { ASSERT(limbBufCount == limbCount, "joint_buff_num == joint_num", "../z_skelanime.c", 2369); skelAnime->jointTable = (Vec3s*)ALIGN16((uintptr_t)jointTable); skelAnime->morphTable = (Vec3s*)ALIGN16((uintptr_t)morphTable); } if ((skelAnime->jointTable == NULL) || (skelAnime->morphTable == NULL)) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Skeleton_Info_Rom_SV_ct メモリアロケーションエラー\n", "Skeleton_Info_Rom_SV_ct Memory allocation error\n")); PRINTF(VT_RST); } LinkAnimation_Change(play, skelAnime, animation, 1.0f, 0.0f, 0.0f, ANIMMODE_LOOP, 0.0f); } /** * Sets the update function of a SkelAnime that uses Link animations based on its mode */ void LinkAnimation_SetUpdateFunction(SkelAnime* skelAnime) { if (skelAnime->mode <= ANIMMODE_LOOP_INTERP) { skelAnime->update.link = LinkAnimation_Loop; } else { skelAnime->update.link = LinkAnimation_Once; } skelAnime->morphWeight = 0.0f; } /** * Advances the current Link animation and updates all frame tables. If the animation plays once, returns true when it * finishes. */ s32 LinkAnimation_Update(PlayState* play, SkelAnime* skelAnime) { return skelAnime->update.link(play, skelAnime); } /** * Requests an interpolation between the pose in jointTable to the one in morphTable, advancing the morph but not the * animation frame */ s32 LinkAnimation_Morph(PlayState* play, SkelAnime* skelAnime) { f32 prevMorphWeight = skelAnime->morphWeight; f32 updateRate = R_UPDATE_RATE * 0.5f; skelAnime->morphWeight -= skelAnime->morphRate * updateRate; if (skelAnime->morphWeight <= 0.0f) { LinkAnimation_SetUpdateFunction(skelAnime); } AnimTaskQueue_AddInterp(play, skelAnime->limbCount, skelAnime->jointTable, skelAnime->morphTable, 1.0f - (skelAnime->morphWeight / prevMorphWeight)); return 0; } /** * Requests a load of the next frame of a Link animation, advances the morph, and requests an interpolation between * jointTable and morphTable */ void LinkAnimation_AnimateFrame(PlayState* play, SkelAnime* skelAnime) { AnimTaskQueue_AddLoadPlayerFrame(play, skelAnime->animation, skelAnime->curFrame, skelAnime->limbCount, skelAnime->jointTable); if (skelAnime->morphWeight != 0) { f32 updateRate = R_UPDATE_RATE * 0.5f; skelAnime->morphWeight -= skelAnime->morphRate * updateRate; if (skelAnime->morphWeight <= 0.0f) { skelAnime->morphWeight = 0.0f; } else { AnimTaskQueue_AddInterp(play, skelAnime->limbCount, skelAnime->jointTable, skelAnime->morphTable, skelAnime->morphWeight); } } } /** * Advances a Link animation that loops over its full length */ s32 LinkAnimation_Loop(PlayState* play, SkelAnime* skelAnime) { f32 updateRate = R_UPDATE_RATE * 0.5f; skelAnime->curFrame += skelAnime->playSpeed * updateRate; if (skelAnime->curFrame < 0.0f) { skelAnime->curFrame += skelAnime->animLength; } else if (skelAnime->animLength <= skelAnime->curFrame) { skelAnime->curFrame -= skelAnime->animLength; } LinkAnimation_AnimateFrame(play, skelAnime); return 0; } /** * Advances a Link animation that stops at endFrame and returns true when it is reached. */ s32 LinkAnimation_Once(PlayState* play, SkelAnime* skelAnime) { f32 updateRate = R_UPDATE_RATE * 0.5f; if (skelAnime->curFrame == skelAnime->endFrame) { LinkAnimation_AnimateFrame(play, skelAnime); return 1; } skelAnime->curFrame += skelAnime->playSpeed * updateRate; if ((skelAnime->curFrame - skelAnime->endFrame) * skelAnime->playSpeed > 0.0f) { skelAnime->curFrame = skelAnime->endFrame; } else if (skelAnime->curFrame < 0.0f) { skelAnime->curFrame += skelAnime->animLength; } else if (skelAnime->animLength <= skelAnime->curFrame) { skelAnime->curFrame -= skelAnime->animLength; } LinkAnimation_AnimateFrame(play, skelAnime); return 0; } /** * Sets a new morph and resets the morph weight for the current animation. */ void Animation_SetMorph(PlayState* play, SkelAnime* skelAnime, f32 morphFrames) { skelAnime->morphWeight = 1.0f; skelAnime->morphRate = 1.0f / morphFrames; } /** * General way to set a new Link animation, allowing choice of playback speed, start frame, end frame, play mode, and * number of transition frames. Positive morph frames morph from the current pose to the start pose of the new * animation, then start the new animation. Negative morph frames start the new animation immediately, modified by the * pose immediately before the animation change. */ void LinkAnimation_Change(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation, f32 playSpeed, f32 startFrame, f32 endFrame, u8 mode, f32 morphFrames) { skelAnime->mode = mode; if ((morphFrames != 0.0f) && ((animation != skelAnime->animation) || (startFrame != skelAnime->curFrame))) { if (morphFrames < 0) { LinkAnimation_SetUpdateFunction(skelAnime); SkelAnime_CopyFrameTable(skelAnime, skelAnime->morphTable, skelAnime->jointTable); morphFrames = -morphFrames; } else { skelAnime->update.link = LinkAnimation_Morph; AnimTaskQueue_AddLoadPlayerFrame(play, animation, (s32)startFrame, skelAnime->limbCount, skelAnime->morphTable); } skelAnime->morphWeight = 1.0f; skelAnime->morphRate = 1.0f / morphFrames; } else { LinkAnimation_SetUpdateFunction(skelAnime); AnimTaskQueue_AddLoadPlayerFrame(play, animation, (s32)startFrame, skelAnime->limbCount, skelAnime->jointTable); skelAnime->morphWeight = 0.0f; } skelAnime->animation = animation; skelAnime->curFrame = 0.0f; skelAnime->startFrame = startFrame; skelAnime->curFrame = startFrame; skelAnime->endFrame = endFrame; skelAnime->animLength = Animation_GetLength(animation); skelAnime->playSpeed = playSpeed; } /** * Immediately changes to a Link animation that plays once at the default speed. */ void LinkAnimation_PlayOnce(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation) { LinkAnimation_Change(play, skelAnime, animation, 1.0f, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_ONCE, 0.0f); } /** * Immediately changes to a Link animation that plays once at the specified speed. */ void LinkAnimation_PlayOnceSetSpeed(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation, f32 playSpeed) { LinkAnimation_Change(play, skelAnime, animation, playSpeed, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_ONCE, 0.0f); } /** * Immediately changes to a Link animation that loops at the default speed. */ void LinkAnimation_PlayLoop(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation) { LinkAnimation_Change(play, skelAnime, animation, 1.0f, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_LOOP, 0.0f); } /** * Immediately changes to a Link animation that loops at the specified speed. */ void LinkAnimation_PlayLoopSetSpeed(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation, f32 playSpeed) { LinkAnimation_Change(play, skelAnime, animation, playSpeed, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_LOOP, 0.0f); } /** * Requests copying jointTable to morphTable */ void LinkAnimation_CopyJointToMorph(PlayState* play, SkelAnime* skelAnime) { AnimTaskQueue_AddCopy(play, skelAnime->limbCount, skelAnime->morphTable, skelAnime->jointTable); } /** * Requests copying morphTable to jointTable * unused */ void LinkAnimation_CopyMorphToJoint(PlayState* play, SkelAnime* skelAnime) { AnimTaskQueue_AddCopy(play, skelAnime->limbCount, skelAnime->jointTable, skelAnime->morphTable); } /** * Requests loading frame data from the Link animation into morphTable */ void LinkAnimation_LoadToMorph(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation, f32 frame) { AnimTaskQueue_AddLoadPlayerFrame(play, animation, (s32)frame, skelAnime->limbCount, skelAnime->morphTable); } /** * Requests loading frame data from the Link animation into jointTable */ void LinkAnimation_LoadToJoint(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation, f32 frame) { AnimTaskQueue_AddLoadPlayerFrame(play, animation, (s32)frame, skelAnime->limbCount, skelAnime->jointTable); } /** * Requests interpolating between jointTable and morphTable, placing the result in jointTable */ void LinkAnimation_InterpJointMorph(PlayState* play, SkelAnime* skelAnime, f32 weight) { AnimTaskQueue_AddInterp(play, skelAnime->limbCount, skelAnime->jointTable, skelAnime->morphTable, weight); } /** * Requests loading frame data from the Link animations and blending them, placing the result in jointTable */ void LinkAnimation_BlendToJoint(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation1, f32 frame1, LinkAnimationHeader* animation2, f32 frame2, f32 blendWeight, Vec3s* blendTable) { Vec3s* alignedBlendTable; AnimTaskQueue_AddLoadPlayerFrame(play, animation1, (s32)frame1, skelAnime->limbCount, skelAnime->jointTable); alignedBlendTable = (Vec3s*)ALIGN16((uintptr_t)blendTable); AnimTaskQueue_AddLoadPlayerFrame(play, animation2, (s32)frame2, skelAnime->limbCount, alignedBlendTable); AnimTaskQueue_AddInterp(play, skelAnime->limbCount, skelAnime->jointTable, alignedBlendTable, blendWeight); } /** * Requests loading frame data from the Link animations and blending them, placing the result in morphTable */ void LinkAnimation_BlendToMorph(PlayState* play, SkelAnime* skelAnime, LinkAnimationHeader* animation1, f32 frame1, LinkAnimationHeader* animation2, f32 frame2, f32 blendWeight, Vec3s* blendTable) { Vec3s* alignedBlendTable; AnimTaskQueue_AddLoadPlayerFrame(play, animation1, (s32)frame1, skelAnime->limbCount, skelAnime->morphTable); alignedBlendTable = (Vec3s*)ALIGN16((uintptr_t)blendTable); AnimTaskQueue_AddLoadPlayerFrame(play, animation2, (s32)frame2, skelAnime->limbCount, alignedBlendTable); AnimTaskQueue_AddInterp(play, skelAnime->limbCount, skelAnime->morphTable, alignedBlendTable, blendWeight); } /** * Changes a looping animation to one that stops at the end. Unused */ void LinkAnimation_EndLoop(SkelAnime* skelAnime) { skelAnime->mode = ANIMMODE_ONCE; LinkAnimation_SetUpdateFunction(skelAnime); } /** * Checks if the current frame is after frame and the previous frame was before it. */ s32 Animation_OnFrameImpl(SkelAnime* skelAnime, f32 frame, f32 updateRate) { f32 updateSpeed = skelAnime->playSpeed * updateRate; f32 prevFrame = skelAnime->curFrame - updateSpeed; f32 curFrameDiff; f32 prevFrameDiff; if (prevFrame < 0.0f) { prevFrame += skelAnime->animLength; } else if (prevFrame >= skelAnime->animLength) { prevFrame -= skelAnime->animLength; } if ((frame == 0.0f) && (updateSpeed > 0.0f)) { frame = skelAnime->animLength; } curFrameDiff = prevFrame + updateSpeed - frame; prevFrameDiff = curFrameDiff - updateSpeed; if ((curFrameDiff * updateSpeed >= 0.0f) && (prevFrameDiff * updateSpeed < 0.0f)) { return true; } return false; } /** * Checks if the current Link animation has reached the specified frame */ s32 LinkAnimation_OnFrame(SkelAnime* skelAnime, f32 frame) { f32 updateRate = R_UPDATE_RATE * 0.5f; return Animation_OnFrameImpl(skelAnime, frame, updateRate); } /** * Initializes a normal skeleton to a looping animation, dynamically allocating the frame tables if not provided. */ BAD_RETURN(s32) SkelAnime_Init(PlayState* play, SkelAnime* skelAnime, SkeletonHeader* skeletonHeaderSeg, AnimationHeader* animation, Vec3s* jointTable, Vec3s* morphTable, s32 limbCount) { SkeletonHeader* skeletonHeader = SEGMENTED_TO_VIRTUAL(skeletonHeaderSeg); skelAnime->limbCount = skeletonHeader->limbCount + 1; skelAnime->skeleton = SEGMENTED_TO_VIRTUAL(skeletonHeader->segment); if (jointTable == NULL) { skelAnime->jointTable = ZELDA_ARENA_MALLOC(skelAnime->limbCount * sizeof(*skelAnime->jointTable), "../z_skelanime.c", 2968); skelAnime->morphTable = ZELDA_ARENA_MALLOC(skelAnime->limbCount * sizeof(*skelAnime->morphTable), "../z_skelanime.c", 2969); } else { ASSERT(limbCount == skelAnime->limbCount, "joint_buff_num == this->joint_num", "../z_skelanime.c", 2973); skelAnime->jointTable = jointTable; skelAnime->morphTable = morphTable; } if ((skelAnime->jointTable == NULL) || (skelAnime->morphTable == NULL)) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Skeleton_Info2_ct メモリアロケーションエラー\n", "Skeleton_Info2_ct Memory allocation error\n")); PRINTF(VT_RST); } if (animation != NULL) { Animation_PlayLoop(skelAnime, animation); } } /** * Initializes a flex skeleton to a looping animation, dynamically allocating the frame tables if not given. */ BAD_RETURN(s32) SkelAnime_InitFlex(PlayState* play, SkelAnime* skelAnime, FlexSkeletonHeader* skeletonHeaderSeg, AnimationHeader* animation, Vec3s* jointTable, Vec3s* morphTable, s32 limbCount) { FlexSkeletonHeader* skeletonHeader = SEGMENTED_TO_VIRTUAL(skeletonHeaderSeg); skelAnime->limbCount = skeletonHeader->sh.limbCount + 1; skelAnime->dListCount = skeletonHeader->dListCount; skelAnime->skeleton = SEGMENTED_TO_VIRTUAL(skeletonHeader->sh.segment); if (jointTable == NULL) { skelAnime->jointTable = ZELDA_ARENA_MALLOC(skelAnime->limbCount * sizeof(*skelAnime->jointTable), "../z_skelanime.c", 3047); skelAnime->morphTable = ZELDA_ARENA_MALLOC(skelAnime->limbCount * sizeof(*skelAnime->morphTable), "../z_skelanime.c", 3048); } else { ASSERT(limbCount == skelAnime->limbCount, "joint_buff_num == this->joint_num", "../z_skelanime.c", 3052); skelAnime->jointTable = jointTable; skelAnime->morphTable = morphTable; } if ((skelAnime->jointTable == NULL) || (skelAnime->morphTable == NULL)) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Skeleton_Info_Rom_SV_ct メモリアロケーションエラー\n", "Skeleton_Info_Rom_SV_ct Memory allocation error\n")); PRINTF(VT_RST); } if (animation != NULL) { Animation_PlayLoop(skelAnime, animation); } } /** * Initializes a skeleton with SkinLimbs to a looping animation, dynamically allocating the frame tables. */ BAD_RETURN(s32) SkelAnime_InitSkin(PlayState* play, SkelAnime* skelAnime, SkeletonHeader* skeletonHeaderSeg, AnimationHeader* animation) { SkeletonHeader* skeletonHeader = SEGMENTED_TO_VIRTUAL(skeletonHeaderSeg); skelAnime->limbCount = skeletonHeader->limbCount + 1; skelAnime->skeleton = SEGMENTED_TO_VIRTUAL(skeletonHeader->segment); skelAnime->jointTable = ZELDA_ARENA_MALLOC(skelAnime->limbCount * sizeof(*skelAnime->jointTable), "../z_skelanime.c", 3120); skelAnime->morphTable = ZELDA_ARENA_MALLOC(skelAnime->limbCount * sizeof(*skelAnime->morphTable), "../z_skelanime.c", 3121); if ((skelAnime->jointTable == NULL) || (skelAnime->morphTable == NULL)) { PRINTF(VT_FGCOL(RED)); PRINTF(T("Skeleton_Info2_skin2_ct メモリアロケーションエラー\n", "Skeleton_Info2_skin2_ct Memory allocation error\n")); PRINTF(VT_RST); } if (animation != NULL) { Animation_PlayLoop(skelAnime, animation); } } /** * Sets the SkelAnime's update function based on its current mode. */ void SkelAnime_SetUpdate(SkelAnime* skelAnime) { if (skelAnime->mode <= ANIMMODE_LOOP_INTERP) { skelAnime->update.normal = SkelAnime_LoopFull; } else if (skelAnime->mode <= ANIMMODE_ONCE_INTERP) { skelAnime->update.normal = SkelAnime_Once; } else { skelAnime->update.normal = SkelAnime_LoopPartial; } } /** * Advances the current animation and updates all frame tables. If the animation plays once, returns true when it * finishes. */ s32 SkelAnime_Update(SkelAnime* skelAnime) { return skelAnime->update.normal(skelAnime); } /** * Morphs from the pose in jointTable to the one in morphTable, advancing the morph but not the animation frame */ s32 SkelAnime_Morph(SkelAnime* skelAnime) { f32 prevMorphWeight = skelAnime->morphWeight; f32 updateRate = R_UPDATE_RATE * (1.0f / 3.0f); skelAnime->morphWeight -= skelAnime->morphRate * updateRate; if (skelAnime->morphWeight <= 0.0f) { SkelAnime_SetUpdate(skelAnime); skelAnime->morphWeight = 0.0f; } SkelAnime_InterpFrameTable(skelAnime->limbCount, skelAnime->jointTable, skelAnime->jointTable, skelAnime->morphTable, 1.0f - (skelAnime->morphWeight / prevMorphWeight)); return 0; } /** * Performs a tapered morph from the pose in jointTable to the one in morphTable, advancing the morph but not the * animation frame */ s32 SkelAnime_MorphTaper(SkelAnime* skelAnime) { s16 prevPhase = skelAnime->morphWeight * 0x4000; s16 curPhase; f32 prevWeight; f32 curWeight; f32 updateRate = R_UPDATE_RATE * (1.0f / 3.0f); skelAnime->morphWeight -= skelAnime->morphRate * updateRate; if (skelAnime->morphWeight <= 0.0f) { SkelAnime_SetUpdate(skelAnime); skelAnime->morphWeight = 0.0f; } curPhase = skelAnime->morphWeight * 0x4000; if (skelAnime->taper <= ANIMTAPER_DECEL) { prevWeight = 1.0f - Math_CosS(prevPhase); curWeight = 1.0f - Math_CosS(curPhase); } else { prevWeight = Math_SinS(prevPhase); curWeight = Math_SinS(curPhase); } if (curWeight != 0.0f) { curWeight /= prevWeight; } else { curWeight = 0.0f; } SkelAnime_InterpFrameTable(skelAnime->limbCount, skelAnime->jointTable, skelAnime->jointTable, skelAnime->morphTable, 1.0f - curWeight); return 0; } /** * Gets frame data for the current frame as modified by morphTable and advances the morph */ void SkelAnime_AnimateFrame(SkelAnime* skelAnime) { Vec3s nextjointTable[100]; SkelAnime_GetFrameData(skelAnime->animation, skelAnime->curFrame, skelAnime->limbCount, skelAnime->jointTable); if (skelAnime->mode & ANIM_INTERP) { s32 frame = skelAnime->curFrame; f32 partialFrame = skelAnime->curFrame - frame; if (++frame >= (s32)skelAnime->animLength) { frame = 0; } SkelAnime_GetFrameData(skelAnime->animation, frame, skelAnime->limbCount, nextjointTable); SkelAnime_InterpFrameTable(skelAnime->limbCount, skelAnime->jointTable, skelAnime->jointTable, nextjointTable, partialFrame); } if (skelAnime->morphWeight != 0) { f32 updateRate = R_UPDATE_RATE * (1.0f / 3.0f); skelAnime->morphWeight -= skelAnime->morphRate * updateRate; if (skelAnime->morphWeight <= 0.0f) { skelAnime->morphWeight = 0.0f; } else { SkelAnime_InterpFrameTable(skelAnime->limbCount, skelAnime->jointTable, skelAnime->jointTable, skelAnime->morphTable, skelAnime->morphWeight); } } } /** * Advances an animation that loops over its full length and updates the frame tables */ s32 SkelAnime_LoopFull(SkelAnime* skelAnime) { f32 updateRate = R_UPDATE_RATE * (1.0f / 3.0f); skelAnime->curFrame += skelAnime->playSpeed * updateRate; if (skelAnime->curFrame < 0.0f) { skelAnime->curFrame += skelAnime->animLength; } else if (skelAnime->animLength <= skelAnime->curFrame) { skelAnime->curFrame -= skelAnime->animLength; } SkelAnime_AnimateFrame(skelAnime); return 0; } /** * Advances an animation that loops over part of its length and updates the frame tables */ s32 SkelAnime_LoopPartial(SkelAnime* skelAnime) { f32 updateRate = R_UPDATE_RATE * (1.0f / 3.0f); skelAnime->curFrame += skelAnime->playSpeed * updateRate; if (skelAnime->curFrame < skelAnime->startFrame) { skelAnime->curFrame = (skelAnime->curFrame - skelAnime->startFrame) + skelAnime->endFrame; } else if (skelAnime->endFrame <= skelAnime->curFrame) { skelAnime->curFrame = (skelAnime->curFrame - skelAnime->endFrame) + skelAnime->startFrame; } SkelAnime_AnimateFrame(skelAnime); return 0; } /** * Advances an animation that stops at endFrame and returns true when it is reached. */ s32 SkelAnime_Once(SkelAnime* skelAnime) { f32 updateRate = R_UPDATE_RATE * (1.0f / 3.0f); if (skelAnime->curFrame == skelAnime->endFrame) { SkelAnime_GetFrameData(skelAnime->animation, (s32)skelAnime->curFrame, skelAnime->limbCount, skelAnime->jointTable); SkelAnime_AnimateFrame(skelAnime); return 1; } skelAnime->curFrame += skelAnime->playSpeed * updateRate; if ((skelAnime->curFrame - skelAnime->endFrame) * skelAnime->playSpeed > 0.0f) { skelAnime->curFrame = skelAnime->endFrame; } else if (skelAnime->curFrame < 0.0f) { skelAnime->curFrame += skelAnime->animLength; } else if (skelAnime->animLength <= skelAnime->curFrame) { skelAnime->curFrame -= skelAnime->animLength; } SkelAnime_AnimateFrame(skelAnime); return 0; } /** * Fully general way to set a new animation, allowing choice of playback speed, start frame, end frame, play mode, * number of transition frames, and tapering of the transition. Positive morph frames morph from the current pose to the * start pose of the new animation, then start the new animation. Negative morph frames start the new animation * immediately, modified by the pose immediately before the animation change. */ void Animation_ChangeImpl(SkelAnime* skelAnime, AnimationHeader* animation, f32 playSpeed, f32 startFrame, f32 endFrame, u8 mode, f32 morphFrames, s8 taper) { skelAnime->mode = mode; if ((morphFrames != 0.0f) && ((animation != skelAnime->animation) || (startFrame != skelAnime->curFrame))) { if (morphFrames < 0) { SkelAnime_SetUpdate(skelAnime); SkelAnime_CopyFrameTable(skelAnime, skelAnime->morphTable, skelAnime->jointTable); morphFrames = -morphFrames; } else { if (taper != ANIMTAPER_NONE) { skelAnime->update.normal = SkelAnime_MorphTaper; skelAnime->taper = taper; } else { skelAnime->update.normal = SkelAnime_Morph; } SkelAnime_GetFrameData(animation, startFrame, skelAnime->limbCount, skelAnime->morphTable); } skelAnime->morphWeight = 1.0f; skelAnime->morphRate = 1.0f / morphFrames; } else { SkelAnime_SetUpdate(skelAnime); SkelAnime_GetFrameData(animation, startFrame, skelAnime->limbCount, skelAnime->jointTable); skelAnime->morphWeight = 0.0f; } skelAnime->animation = animation; skelAnime->startFrame = startFrame; skelAnime->endFrame = endFrame; skelAnime->animLength = Animation_GetLength(animation); if (skelAnime->mode >= ANIMMODE_LOOP_PARTIAL) { skelAnime->curFrame = 0.0f; } else { skelAnime->curFrame = startFrame; if (skelAnime->mode <= ANIMMODE_LOOP_INTERP) { skelAnime->endFrame = skelAnime->animLength - 1.0f; } } skelAnime->playSpeed = playSpeed; } /** * General way to set a new animation, allowing choice of playback speed, start frame, end frame, play mode, and number * of transition frames. Positive morph frames morph from the current pose to the start pose of the new animation, then * start the new animation. Negative morph frames start the new animation immediately, modified by the pose immediately * before the animation change. */ void Animation_Change(SkelAnime* skelAnime, AnimationHeader* animation, f32 playSpeed, f32 startFrame, f32 endFrame, u8 mode, f32 morphFrames) { Animation_ChangeImpl(skelAnime, animation, playSpeed, startFrame, endFrame, mode, morphFrames, ANIMTAPER_NONE); } /** * Immediately changes to an animation that plays once at the default speed. */ void Animation_PlayOnce(SkelAnime* skelAnime, AnimationHeader* animation) { Animation_Change(skelAnime, animation, 1.0f, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_ONCE, 0.0f); } /** * Smoothly transitions to an animation that plays once at the default speed. * Positive morph frames morph from the current pose to the start pose of the new animation, then start the new * animation. Negative morph frames start the new animation immediately, modified by the pose immediately before the * animation change. */ void Animation_MorphToPlayOnce(SkelAnime* skelAnime, AnimationHeader* animation, f32 morphFrames) { Animation_Change(skelAnime, animation, 1.0f, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_ONCE, morphFrames); } /** * Immediately changes to an animation that plays once at the specified speed. */ void Animation_PlayOnceSetSpeed(SkelAnime* skelAnime, AnimationHeader* animation, f32 playSpeed) { Animation_Change(skelAnime, animation, playSpeed, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_ONCE, 0.0f); } /** * Immediately changes to an animation that loops at the default. */ void Animation_PlayLoop(SkelAnime* skelAnime, AnimationHeader* animation) { Animation_Change(skelAnime, animation, 1.0f, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_LOOP, 0.0f); } /** * Smoothly transitions to a looping animation, specifying the number of frames for the transition. * Positive morph frames morph from the current pose to the start pose of the new animation, then start the new * animation. Negative morph frames start the new animation immediately, modified by the pose immediately before the * animation change. */ void Animation_MorphToLoop(SkelAnime* skelAnime, AnimationHeader* animation, f32 morphFrames) { Animation_Change(skelAnime, animation, 1.0f, 0.0f, 0.0f, ANIMMODE_LOOP, morphFrames); } /** * Immediately changes to an animation that loops at the specified speed. */ void Animation_PlayLoopSetSpeed(SkelAnime* skelAnime, AnimationHeader* animation, f32 playSpeed) { Animation_Change(skelAnime, animation, playSpeed, 0.0f, Animation_GetLastFrame(animation), ANIMMODE_LOOP, 0.0f); } /** * Changes a looping animation to one that stops at the end. Unused */ void Animation_EndLoop(SkelAnime* skelAnime) { skelAnime->mode = ANIMMODE_ONCE; skelAnime->endFrame = skelAnime->animLength; SkelAnime_SetUpdate(skelAnime); } /** * Reverses the current animation. */ void Animation_Reverse(SkelAnime* skelAnime) { f32 startFrame = skelAnime->startFrame; skelAnime->startFrame = skelAnime->endFrame; skelAnime->playSpeed = -skelAnime->playSpeed; skelAnime->endFrame = startFrame; } /** * Copies the src frame table to the dst frame table if copyFlag for that limb is true. * Used only by En_Test */ void SkelAnime_CopyFrameTableTrue(SkelAnime* skelAnime, Vec3s* dst, Vec3s* src, u8* copyFlag) { s32 i; for (i = 0; i < skelAnime->limbCount; i++, dst++, src++) { if (*copyFlag++) { *dst = *src; } } } /** * Copies the src frame table to the dst frame table if copyFlag for that limb is false. * Unused. */ void SkelAnime_CopyFrameTableFalse(SkelAnime* skelAnime, Vec3s* dst, Vec3s* src, u8* copyFlag) { s32 i; for (i = 0; i < skelAnime->limbCount; i++, dst++, src++) { if (!*copyFlag++) { *dst = *src; } } } /** * Updates translation of the root limb and calculates `pos`, the difference between * the old and new positions of the root limb as rotated by `angle`. Used to allow * animations to change an actor's position. */ void SkelAnime_UpdateTranslation(SkelAnime* skelAnime, Vec3f* diff, s16 angle) { f32 x; f32 z; f32 sin; f32 cos; // If `ANIM_FLAG_UPDATE_XZ` behaved as expected, it would also be checked here if (skelAnime->movementFlags & ANIM_FLAG_ADJUST_STARTING_POS) { diff->x = diff->z = 0.0f; } else { x = skelAnime->jointTable[0].x; z = skelAnime->jointTable[0].z; sin = Math_SinS(angle); cos = Math_CosS(angle); diff->x = x * cos + z * sin; diff->z = z * cos - x * sin; x = skelAnime->prevTransl.x; z = skelAnime->prevTransl.z; sin = Math_SinS(skelAnime->prevRot); cos = Math_CosS(skelAnime->prevRot); diff->x -= x * cos + z * sin; diff->z -= z * cos - x * sin; } skelAnime->prevRot = angle; skelAnime->prevTransl.x = skelAnime->jointTable[0].x; skelAnime->jointTable[0].x = skelAnime->baseTransl.x; skelAnime->prevTransl.z = skelAnime->jointTable[0].z; skelAnime->jointTable[0].z = skelAnime->baseTransl.z; if (skelAnime->movementFlags & ANIM_FLAG_UPDATE_Y) { if (skelAnime->movementFlags & ANIM_FLAG_ADJUST_STARTING_POS) { diff->y = 0.0f; } else { diff->y = skelAnime->jointTable[0].y - skelAnime->prevTransl.y; } skelAnime->prevTransl.y = skelAnime->jointTable[0].y; skelAnime->jointTable[0].y = skelAnime->baseTransl.y; } else { diff->y = 0.0f; skelAnime->prevTransl.y = skelAnime->jointTable[0].y; } skelAnime->movementFlags &= ~ANIM_FLAG_ADJUST_STARTING_POS; } /** * Checks if the current animation is at the specified frame */ s32 Animation_OnFrame(SkelAnime* skelAnime, f32 frame) { return Animation_OnFrameImpl(skelAnime, frame, 1.0f); } /** * Frees the frame tables for a skelAnime with dynamically allocated tables. */ void SkelAnime_Free(SkelAnime* skelAnime, PlayState* play) { if (skelAnime->jointTable != NULL) { ZELDA_ARENA_FREE(skelAnime->jointTable, "../z_skelanime.c", 3729); } else { PRINTF(T("now_joint あきまへん!!\n", "now_joint is freed!!\n")); } if (skelAnime->morphTable != NULL) { ZELDA_ARENA_FREE(skelAnime->morphTable, "../z_skelanime.c", 3731); } else { PRINTF(T("morf_joint あきまへん!!\n", "morf_joint is freed!!\n")); } } /** * Copies the src frame table to the dst frame table. */ void SkelAnime_CopyFrameTable(SkelAnime* skelAnime, Vec3s* dst, Vec3s* src) { s32 i; for (i = 0; i < skelAnime->limbCount; i++) { *dst++ = *src++; } }