Добавлены функции модуля для версоров и кватернионо / Functions of modulus have been added for versors and quaternions
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bef7ab98f4
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03e390c1d0
12 changed files with 246 additions and 211 deletions
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@ -57,7 +57,7 @@ void print_versor(const BgFP32Versor* versor)
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void print_vector(const BgFP32Vector3* vector)
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{
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printf("(%f, %f, %f) / %f\n", vector->x1, vector->x2, vector->x3, bg_fp32_vector3_get_module(vector));
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printf("(%f, %f, %f) / %f\n", vector->x1, vector->x2, vector->x3, bg_fp32_vector3_get_modulus(vector));
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}
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/*
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int main()
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@ -120,7 +120,6 @@ int main()
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}
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*/
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/*
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int main()
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{
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const unsigned int amount = 1000000;
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@ -130,7 +129,7 @@ int main()
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now = GetTickCount64();
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srand((unsigned int)(now & 0xfffffff));
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#else
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timespec now;
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struct timespec now;
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clock_gettime(0, &now);
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srand((unsigned int)(now.tv_nsec & 0xfffffff));
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#endif // _WIN64
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@ -191,14 +190,3 @@ int main()
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free(versors1);
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return 0;
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}
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*/
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int main() {
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BgFP32Versor versor;
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bg_fp32_versor_reset(&versor);
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printf("Versor: (%f, %f, %f, %f)\n", versor.s0, versor.x1, versor.x2, versor.x3);
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return 0;
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}
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@ -18,20 +18,20 @@ const BgFP32Vector2 TEST_BG_FP32_VECTOR2_COMMON_2[] = {
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{ 1.5f, -23.35f }
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};
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// =============== Square module ================ //
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// =============== Square modulus =============== //
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const float BG_FP32_VECTOR2_SQUARE_MODULE_1[] = { 25.0f, 25.0f, 500000000.0f, 100.01f, 15266.150221f };
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const float BG_FP32_VECTOR2_SQUARE_MODULUS_1[] = { 25.0f, 25.0f, 500000000.0f, 100.01f, 15266.150221f };
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int test_bg_fp32_vector2_square_module()
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int test_bg_fp32_vector2_square_modulus()
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{
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print_test_name("BgFP32Vector2 square module");
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print_test_name("BgFP32Vector2 square modulus");
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float square_module;
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float square_modulus;
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for (int i = 0; i < TEST_BG_FP32_VECTOR2_AMOUNT_1; i++) {
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square_module = bg_fp32_vector2_get_square_module(&TEST_BG_FP32_VECTOR2_COMMON_1[i]);
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square_modulus = bg_fp32_vector2_get_square_modulus(&TEST_BG_FP32_VECTOR2_COMMON_1[i]);
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if (!test_bg_fp32_are_equal(square_module, BG_FP32_VECTOR2_SQUARE_MODULE_1[i], TEST_BG_FP32_TWO_EPSYLON)) {
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if (!test_bg_fp32_are_equal(square_modulus, BG_FP32_VECTOR2_SQUARE_MODULUS_1[i], TEST_BG_FP32_TWO_EPSYLON)) {
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print_test_failed();
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return TEST_RESULT_FAILED;
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}
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@ -43,18 +43,18 @@ int test_bg_fp32_vector2_square_module()
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// =================== Module =================== //
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const float BG_FP32_VECTOR2_MODULE_1[] = { 5.0f, 5.0f, 22360.68f, 10.0005f, 123.55626338f };
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const float BG_FP32_VECTOR2_MODULUS_1[] = { 5.0f, 5.0f, 22360.68f, 10.0005f, 123.55626338f };
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int test_bg_fp32_vector2_module()
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int test_bg_fp32_vector2_modulus()
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{
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print_test_name("BgFP32Vector2 module");
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print_test_name("BgFP32Vector2 modulus");
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float square_module;
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float square_modulus;
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for (int i = 0; i < TEST_BG_FP32_VECTOR2_AMOUNT_1; i++) {
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square_module = bg_fp32_vector2_get_module(&TEST_BG_FP32_VECTOR2_COMMON_1[i]);
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square_modulus = bg_fp32_vector2_get_modulus(&TEST_BG_FP32_VECTOR2_COMMON_1[i]);
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if (!test_bg_fp32_are_equal(square_module, BG_FP32_VECTOR2_MODULE_1[i], TEST_BG_FP32_EPSYLON)) {
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if (!test_bg_fp32_are_equal(square_modulus, BG_FP32_VECTOR2_MODULUS_1[i], TEST_BG_FP32_EPSYLON)) {
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print_test_failed();
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return TEST_RESULT_FAILED;
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}
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@ -130,11 +130,11 @@ int test_bg_fp32_vector2()
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{
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print_test_section("BgFP32Vector2");
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if (test_bg_fp32_vector2_square_module() != TEST_RESULT_SUCCES) {
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if (test_bg_fp32_vector2_square_modulus() != TEST_RESULT_SUCCES) {
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return TEST_RESULT_FAILED;
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}
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if (test_bg_fp32_vector2_module() != TEST_RESULT_SUCCES) {
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if (test_bg_fp32_vector2_modulus() != TEST_RESULT_SUCCES) {
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return TEST_RESULT_FAILED;
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}
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@ -5,9 +5,9 @@
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int test_bg_fp32_vector2();
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int test_bg_fp32_vector2_square_module();
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int test_bg_fp32_vector2_square_modulus();
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int test_bg_fp32_vector2_module();
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int test_bg_fp32_vector2_modulus();
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int test_bg_fp32_vector2_add();
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@ -9,15 +9,15 @@ void bg_fp32_quaternion_get_rotation_matrix(const BgFP32Quaternion* quaternion,
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const float x2x2 = quaternion->x2 * quaternion->x2;
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const float x3x3 = quaternion->x3 * quaternion->x3;
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const float square_module = (s0s0 + x1x1) + (x2x2 + x3x3);
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const float square_modulus = (s0s0 + x1x1) + (x2x2 + x3x3);
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if (-BG_FP32_EPSYLON <= square_module && square_module <= BG_FP32_EPSYLON)
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if (-BG_FP32_EPSYLON <= square_modulus && square_modulus <= BG_FP32_EPSYLON)
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{
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bg_fp32_matrix3x3_set_to_identity(matrix);
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return;
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}
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const float corrector1 = 1.0f / square_module;
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const float corrector1 = 1.0f / square_modulus;
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const float corrector2 = 2.0f * corrector1;
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const float s0x1 = quaternion->s0 * quaternion->x1;
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@ -47,15 +47,15 @@ void bg_fp64_quaternion_get_rotation_matrix(const BgFP64Quaternion* quaternion,
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const double x2x2 = quaternion->x2 * quaternion->x2;
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const double x3x3 = quaternion->x3 * quaternion->x3;
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const double square_module = (s0s0 + x1x1) + (x2x2 + x3x3);
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const double square_modulus = (s0s0 + x1x1) + (x2x2 + x3x3);
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if (-BG_FP64_EPSYLON <= square_module && square_module <= BG_FP64_EPSYLON)
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if (-BG_FP64_EPSYLON <= square_modulus && square_modulus <= BG_FP64_EPSYLON)
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{
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bg_fp64_matrix3x3_set_to_identity(matrix);
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return;
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}
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const double corrector1 = 1.0f / square_module;
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const double corrector1 = 1.0f / square_modulus;
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const double corrector2 = 2.0f * corrector1;
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const double s0x1 = quaternion->s0 * quaternion->x1;
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@ -87,15 +87,15 @@ void bg_fp32_quaternion_get_reverse_matrix(const BgFP32Quaternion* quaternion, B
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const float x2x2 = quaternion->x2 * quaternion->x2;
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const float x3x3 = quaternion->x3 * quaternion->x3;
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const float square_module = (s0s0 + x1x1) + (x2x2 + x3x3);
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const float square_modulus = (s0s0 + x1x1) + (x2x2 + x3x3);
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if (-BG_FP32_EPSYLON <= square_module && square_module <= BG_FP32_EPSYLON)
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if (-BG_FP32_EPSYLON <= square_modulus && square_modulus <= BG_FP32_EPSYLON)
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{
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bg_fp32_matrix3x3_set_to_identity(matrix);
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return;
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}
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const float corrector1 = 1.0f / square_module;
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const float corrector1 = 1.0f / square_modulus;
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const float corrector2 = 2.0f * corrector1;
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const float s0x1 = quaternion->s0 * quaternion->x1;
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@ -125,15 +125,15 @@ void bg_fp64_quaternion_get_reverse_matrix(const BgFP64Quaternion* quaternion, B
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const double x2x2 = quaternion->x2 * quaternion->x2;
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const double x3x3 = quaternion->x3 * quaternion->x3;
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const double square_module = (s0s0 + x1x1) + (x2x2 + x3x3);
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const double square_modulus = (s0s0 + x1x1) + (x2x2 + x3x3);
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if (-BG_FP64_EPSYLON <= square_module && square_module <= BG_FP64_EPSYLON)
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if (-BG_FP64_EPSYLON <= square_modulus && square_modulus <= BG_FP64_EPSYLON)
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{
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bg_fp64_matrix3x3_set_to_identity(matrix);
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return;
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}
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const double corrector1 = 1.0f / square_module;
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const double corrector1 = 1.0f / square_modulus;
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const double corrector2 = 2.0f * corrector1;
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const double s0x1 = quaternion->s0 * quaternion->x1;
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@ -89,72 +89,96 @@ static inline void bg_fp64_quaternion_copy(const BgFP64Quaternion* from, BgFP64Q
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// ============= Copy to twin type ============== //
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static inline void bg_fp32_quaternion_set_from_fp64(const BgFP64Quaternion* versor, BgFP32Quaternion* result)
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static inline void bg_fp32_quaternion_set_from_fp64(const BgFP64Quaternion* quaternion, BgFP32Quaternion* result)
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{
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result->s0 = (float) versor->s0;
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result->x1 = (float) versor->x1;
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result->x2 = (float) versor->x2;
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result->x3 = (float) versor->x3;
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result->s0 = (float) quaternion->s0;
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result->x1 = (float) quaternion->x1;
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result->x2 = (float) quaternion->x2;
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result->x3 = (float) quaternion->x3;
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}
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static inline void bg_fp64_quaternion_set_from_fp32(const BgFP32Quaternion* versor, BgFP64Quaternion* result)
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static inline void bg_fp64_quaternion_set_from_fp32(const BgFP32Quaternion* quaternion, BgFP64Quaternion* result)
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{
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result->s0 = versor->s0;
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result->x1 = versor->x1;
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result->x2 = versor->x2;
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result->x3 = versor->x3;
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result->s0 = quaternion->s0;
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result->x1 = quaternion->x1;
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result->x2 = quaternion->x2;
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result->x3 = quaternion->x3;
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}
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// ================= Inversion ================== //
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static inline void bg_fp32_quaternion_conjugate(BgFP32Quaternion* versor)
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static inline void bg_fp32_quaternion_conjugate(BgFP32Quaternion* quaternion)
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{
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versor->x1 = -versor->x1;
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versor->x2 = -versor->x2;
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versor->x3 = -versor->x3;
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quaternion->x1 = -quaternion->x1;
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quaternion->x2 = -quaternion->x2;
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quaternion->x3 = -quaternion->x3;
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}
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static inline void bg_fp64_quaternion_conjugate(BgFP64Quaternion* versor)
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static inline void bg_fp64_quaternion_conjugate(BgFP64Quaternion* quaternion)
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{
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versor->x1 = -versor->x1;
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versor->x2 = -versor->x2;
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versor->x3 = -versor->x3;
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quaternion->x1 = -quaternion->x1;
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quaternion->x2 = -quaternion->x2;
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quaternion->x3 = -quaternion->x3;
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}
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// ================ Set Conjugate =============== //
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static inline void bg_fp32_quaternion_set_conjugate(const BgFP32Quaternion* versor, BgFP32Quaternion* result)
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static inline void bg_fp32_quaternion_set_conjugate(const BgFP32Quaternion* quaternion, BgFP32Quaternion* result)
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{
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result->s0 = versor->s0;
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result->x1 = -versor->x1;
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result->x2 = -versor->x2;
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result->x3 = -versor->x3;
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result->s0 = quaternion->s0;
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result->x1 = -quaternion->x1;
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result->x2 = -quaternion->x2;
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result->x3 = -quaternion->x3;
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}
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static inline void bg_fp64_quaternion_set_conjugate(const BgFP64Quaternion* versor, BgFP64Quaternion* result)
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static inline void bg_fp64_quaternion_set_conjugate(const BgFP64Quaternion* quaternion, BgFP64Quaternion* result)
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{
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result->s0 = versor->s0;
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result->x1 = -versor->x1;
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result->x2 = -versor->x2;
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result->x3 = -versor->x3;
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result->s0 = quaternion->s0;
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result->x1 = -quaternion->x1;
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result->x2 = -quaternion->x2;
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result->x3 = -quaternion->x3;
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}
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// ================ Get Inverted ================ //
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// ================ Set Conjugate =============== //
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static inline void bg_fp32_quaternion_set_conjugate_fp64(const BgFP64Quaternion* versor, BgFP32Quaternion* result)
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static inline void bg_fp32_quaternion_set_conjugate_fp64(const BgFP64Quaternion* quaternion, BgFP32Quaternion* result)
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{
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result->s0 = (float) versor->s0;
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result->x1 = (float) -versor->x1;
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result->x2 = (float) -versor->x2;
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result->x3 = (float) -versor->x3;
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result->s0 = (float) quaternion->s0;
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result->x1 = (float) -quaternion->x1;
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result->x2 = (float) -quaternion->x2;
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result->x3 = (float) -quaternion->x3;
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}
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static inline void bg_fp64_quaternion_set_conjugate_fp32(const BgFP32Quaternion* versor, BgFP64Quaternion* result)
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static inline void bg_fp64_quaternion_set_conjugate_fp32(const BgFP32Quaternion* quaternion, BgFP64Quaternion* result)
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{
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result->s0 = versor->s0;
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result->x1 = -versor->x1;
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result->x2 = -versor->x2;
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result->x3 = -versor->x3;
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result->s0 = quaternion->s0;
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result->x1 = -quaternion->x1;
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result->x2 = -quaternion->x2;
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result->x3 = -quaternion->x3;
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}
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// ============= Get Square Modulus ============= //
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static inline float bg_fp32_quaternion_get_square_modulus(const BgFP32Quaternion* quaternion)
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{
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return (quaternion->s0 * quaternion->s0 + quaternion->x1 * quaternion->x1) + (quaternion->x2 * quaternion->x2 + quaternion->x3 * quaternion->x3);
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}
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static inline double bg_fp64_quaternion_get_square_modulus(const BgFP64Quaternion* quaternion)
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{
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return (quaternion->s0 * quaternion->s0 + quaternion->x1 * quaternion->x1) + (quaternion->x2 * quaternion->x2 + quaternion->x3 * quaternion->x3);
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}
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// ================ Get Modulus ================= //
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static inline float bg_fp32_quaternion_get_modulus(const BgFP32Quaternion* quaternion)
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{
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return sqrtf(bg_fp32_quaternion_get_square_modulus(quaternion));
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}
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static inline double bg_fp64_quaternion_get_modulus(const BgFP64Quaternion* quaternion)
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{
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return sqrt(bg_fp64_quaternion_get_square_modulus(quaternion));
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}
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// ============ Make Rotation Matrix ============ //
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@ -8,19 +8,19 @@ float bg_fp32_vector2_get_angle(const BgFP32Vector2* vector1, const BgFP32Vector
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return 0.0f;
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}
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const float square_module1 = bg_fp32_vector2_get_square_module(vector1);
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const float square_modulus1 = bg_fp32_vector2_get_square_modulus(vector1);
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if (square_module1 <= BG_FP32_SQUARE_EPSYLON) {
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if (square_modulus1 <= BG_FP32_SQUARE_EPSYLON) {
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return 0.0f;
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}
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const float square_module2 = bg_fp32_vector2_get_square_module(vector2);
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