// =-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-= // // »Project« Teikitu Gaming System (TgS) (∂) // »File« TgS Common - Math API [Matrix] [F] [F].h_inc // »Author« Andrew Aye (EMail: mailto:andrew.aye@gmail.com, Web: http://www.andrewaye.com) // »Version« 4.0 // ------------------------------------------------------------------------------------------------------------------------------ // // Copyright: © 2002-2010, Andrew Aye. All Rights Reserved. // This software is free for non-commercial use. Redistribution and use in source and binary forms, with or without modification, // are permitted provided that the following conditions are met: // Redistributions of source code must retain this copyright notice, this list of conditions and the following disclaimers. // Redistributions in binary form must reproduce this copyright notice, this list of conditions and the following // disclaimers in the documentation and other materials provided with the distribution. // Neither the names of the copyright owner nor the names of its contributors may be used to endorse or promote products derived // from this software without specific prior written permission. // The intellectual property rights of the algorithms used reside with Andrew Aye. You may not use this software, in whole or // in part, in support of any commercial product without the express written consent of the author. // There is no warranty or other guarantee of fitness of this software for any purpose. It is provided solely "as is". // =-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-= // // == Math ====================================================================================================================== // // General Matrix Implementation // Per-Vector Arithmetic Operations TgINLINE TgVOID M(F_ADD_MM)( M(PCU_TgMAT), M(CPCU_TgMAT), M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_MUL_MM)( M(PCU_TgMAT), M(CPCU_TgMAT), M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_MUL_SM)( M(PCU_TgMAT), const TYPE, M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_MUL_MS)( M(PCU_TgMAT), M(CPCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_DIV_MM)( M(PCU_TgMAT), M(CPCU_TgMAT), M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_DIV_SM)( M(PCU_TgMAT), const TYPE, M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_DIV_MS)( M(PCU_TgMAT), M(CPCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_SUB_MM)( M(PCU_TgMAT), M(CPCU_TgMAT), M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_NEG_MM)( M(PCU_TgMAT), M(CPCU_TgMAT) ); // Matrix Specific Implementation // Load/Set Operations TgINLINE TgVOID M(F_CLI)( M(PCU_TgMAT) ); // Matrix Arithmetic Operations TgINLINE TgVOID M(F_CAT)( M(PCU_TgMAT), M(CPCU_TgMAT), M(CPCU_TgMAT) ); // Inverse Functions TgINLINE TgVOID M(F_INV_DET)( M(PCU_TgMAT), const TYPE, M(CPCU_TgMAT) ); TgINLINE TgVOID M(F_INV)( M(PCU_TgMAT), M(CPCU_TgMAT) ); TgINLINE TYPE M(F_DET)( M(CPCU_TgMAT) ); // Transformation TgINLINE V4(TgVEC) M(F_TX_V4)( M(CPCU_TgMAT), V4(CPCU_TgVEC) ); // Get Basis TgINLINE V4(TgVEC) M(F_GET_COL_0_V4)( M(CPCU_TgMAT) ); TgINLINE V4(TgVEC) M(F_GET_COL_1_V4)( M(CPCU_TgMAT) ); TgINLINE V4(TgVEC) M(F_GET_COL_2_V4)( M(CPCU_TgMAT) ); TgINLINE V4(TgVEC) M(F_GET_COL_3_V4)( M(CPCU_TgMAT) ); // -.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-. // // Scalar Function // -.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-.-. // // Scalar - General Matrix Implementation // Set Rotation [[0..2][0..2]] TgINLINE TgVOID M(F_SET_EUL_V3)( M(PCU_TgMAT), V3(CPCU_TgVEC) ); TgINLINE TgVOID M(F_SET_EUL_V4)( M(PCU_TgMAT), V4(CPCU_TgVEC) ); TgINLINE TgVOID M(F_SET_EUL_ELEM)( M(PCU_TgMAT), const TYPE, const TYPE, const TYPE ); TgINLINE TgVOID M(F_SET_ELX)( M(PCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_SET_ELY)( M(PCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_SET_ELZ)( M(PCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_SET_ROT)( M(PCU_TgMAT), V4(CPCU_TgVEC) ); // Scalar - Matrix Specific Implementation // Validation TgINLINE TgBOOL M(F_NaN)( M(CPCU_TgMAT) ); // Init Rotation [[0..2][0..2]] TgINLINE TgVOID M(F_INIT_EUL_V3)( M(PCU_TgMAT), V3(CPCU_TgVEC) ); TgINLINE TgVOID M(F_INIT_EUL_V4)( M(PCU_TgMAT), V4(CPCU_TgVEC) ); TgINLINE TgVOID M(F_INIT_EUL_ELEM)( M(PCU_TgMAT), const TYPE, const TYPE, const TYPE ); TgINLINE TgVOID M(F_INIT_ELX)( M(PCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_INIT_ELY)( M(PCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_INIT_ELZ)( M(PCU_TgMAT), const TYPE ); TgINLINE TgVOID M(F_INIT_ROT)( M(PCU_TgMAT), V4(CPCU_TgVEC) ); // Get Basis TgINLINE V3(TgVEC) M(F_GET_COL_0_V3)( M(CPCU_TgMAT) ); TgINLINE V3(TgVEC) M(F_GET_COL_1_V3)( M(CPCU_TgMAT) ); TgINLINE V3(TgVEC) M(F_GET_COL_2_V3)( M(CPCU_TgMAT) ); TgINLINE V3(TgVEC) M(F_GET_COL_3_V3)( M(CPCU_TgMAT) );