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dxruby: Commit


Commit MetaInfo

Revision532 (tree)
Time2016-05-05 21:53:23
Authormirichi

Log Message

1.5からコピーしたので1.4.3用に修正

Change Summary

  • delete: branches/1.4.3/matrix.h
  • delete: branches/1.4.3/matrix.c
  • delete: branches/1.4.3/DXRubyリファレンス.chm
  • modified: branches/1.4.3/version.h (diff)

Incremental Difference

--- branches/1.4.3/matrix.h (revision 531)
+++ branches/1.4.3/matrix.h (nonexistent)
@@ -1,30 +0,0 @@
1-/* 行列 */
2-struct DXRubyMatrix {
3- int x;
4- int y;
5- union {
6- struct {
7- float m11;float m12; float m13; float m14;
8- float m21;float m22; float m23; float m24;
9- float m31;float m32; float m33; float m34;
10- float m41;float m42; float m43; float m44;
11- };
12- float m[4][4];
13- };
14-};
15-
16-/* ベクトル */
17-struct DXRubyVector {
18- int x;
19- union {
20- struct {
21- float v1;float v2; float v3; float v4;
22- };
23- float v[4];
24- };
25-};
26-
27-void Init_dxruby_Matrix(void);
28-VALUE Vector_allocate( VALUE klass );
29-void Matrix_release( struct DXRubyMatrix* mat );
30-void Vector_release( struct DXRubyVector* vec );
--- branches/1.4.3/matrix.c (revision 531)
+++ branches/1.4.3/matrix.c (nonexistent)
@@ -1,1221 +0,0 @@
1-#define WINVER 0x0500 /* バージョン定義 Windows2000以上 */
2-#define _WIN32_WINNT WINVER
3-
4-#include "ruby.h"
5-#ifndef RUBY_ST_H
6-#include "st.h"
7-#endif
8-
9-#define DXRUBY_EXTERN 1
10-#include "dxruby.h"
11-#include "matrix.h"
12-
13-VALUE cMatrix; /* 行列クラス */
14-VALUE cVector; /* ベクトルクラス */
15-
16-#ifdef DXRUBY_USE_TYPEDDATA
17-const rb_data_type_t Matrix_data_type;
18-const rb_data_type_t Vector_data_type;
19-#endif
20-
21-static float pi = 3.141592653589793115997963468544185161590576171875f;
22-
23-/*********************************************************************
24- * Matrixクラス
25- *
26- * 行列を表現する。
27- *********************************************************************/
28-
29-/*--------------------------------------------------------------------
30- 参照されなくなったときにGCから呼ばれる関数
31- ---------------------------------------------------------------------*/
32-void Matrix_release( struct DXRubyMatrix* mat )
33-{
34- free( mat );
35-}
36-
37-#ifdef DXRUBY_USE_TYPEDDATA
38-const rb_data_type_t Matrix_data_type = {
39- "Matrix",
40- {
41- 0,
42- Matrix_release,
43- 0,
44- },
45- NULL, NULL
46-};
47-#endif
48-
49-/*--------------------------------------------------------------------
50- Matrixクラスのallocate。メモリを確保する為にinitialize前に呼ばれる。
51- ---------------------------------------------------------------------*/
52-static VALUE Matrix_allocate( VALUE klass )
53-{
54- VALUE obj;
55- struct DXRubyMatrix *mat;
56-
57- /* DXRubyMatrixのメモリ取得＆Matrixオブジェクト生成 */
58- mat = malloc( sizeof( struct DXRubyMatrix ) );
59- if( mat == NULL ) rb_raise( eDXRubyError, "メモリの取得に失敗しました - Matrix_allocate" );
60-#ifdef DXRUBY_USE_TYPEDDATA
61- obj = TypedData_Wrap_Struct( klass, &Matrix_data_type, mat );
62-#else
63- obj = Data_Wrap_Struct( klass, 0, Matrix_release, mat );
64-#endif
65- mat->x = 0;
66- mat->y = 0;
67- ZeroMemory( mat->m, sizeof( float ) * 16 );
68-
69- return obj;
70-}
71-
72-/*--------------------------------------------------------------------
73- MatrixクラスのInitialize
74- ---------------------------------------------------------------------*/
75-static VALUE Matrix_initialize( int argc, VALUE *argv, VALUE self )
76-{
77- struct DXRubyMatrix *mat = DXRUBY_GET_STRUCT( Matrix, self );
78- VALUE ary, *ary_p;
79- int i, j, count;
80-
81- if( argc == 0 )
82- {
83- mat->m11 = 1;mat->m22 = 1;mat->m33 = 1;mat->m44 = 1;
84- mat->x = mat->y = 4;
85- return self;
86- }
87-
88- if( argc == 1 )
89- {
90- ary = argv[0];
91- Check_Type( ary, T_ARRAY );
92- if( RARRAY_LEN( ary ) > 4 || RARRAY_LEN( ary ) < 1 ) rb_raise( eDXRubyError, "配列の数が正しくありません。 - Matrix_initialize");
93- ary_p = RARRAY_PTR( ary );
94- count = RARRAY_LEN( ary );
95- }
96- else
97- {
98- if( argc > 4 ) rb_raise( eDXRubyError, "引数の数が正しくありません。 - Matrix_initialize");
99- ary_p = argv;
100- count = argc;
101- }
102-
103- mat->y = count;
104- for( i = 0; i < count; i++ )
105- {
106- VALUE ary2 = ary_p[i];
107- Check_Type( ary2, T_ARRAY );
108- if( RARRAY_LEN( ary2 ) > 4 || RARRAY_LEN( ary2 ) < 1 || RARRAY_LEN( ary2 ) != mat->y ) rb_raise( eDXRubyError, "配列の数が正しくありません。 - Matrix_initialize");
109-
110- for( j = 0; j < RARRAY_LEN( ary2 ); j++ )
111- {
112- mat->m[i][j] = NUM2FLOAT( RARRAY_PTR( ary2 )[j] );
113- }
114- }
115- mat->x = RARRAY_LEN( ary_p[0] );
116-
117- return self;
118-}
119-
120-static VALUE Matrix_mul( VALUE self, VALUE varg )
121-{
122- struct DXRubyMatrix *mat_d = DXRUBY_GET_STRUCT( Matrix, self );
123- struct DXRubyMatrix *result;
124- VALUE vresult;
125-
126- if( FIXNUM_P( varg ) || TYPE( varg ) == T_FLOAT || TYPE( varg ) == T_BIGNUM )
127- {
128- int i, j;
129-
130- vresult = Matrix_allocate( cMatrix );
131- result = DXRUBY_GET_STRUCT( Matrix, vresult );
132- result->x = mat_d->x;
133- result->y = mat_d->y;
134- for( i = 0; i < mat_d->y; i++ )
135- {
136- for( j = 0; j < mat_d->x; j++ )
137- {
138- result->m[i][j] = mat_d->m[i][j] * NUM2FLOAT( varg );
139- }
140- }
141- }
142- else
143- {
144- int i, j, k;
145- struct DXRubyMatrix *mat_s;
146-
147- DXRUBY_CHECK_TYPE( Matrix, varg );
148- mat_s = DXRUBY_GET_STRUCT( Matrix, varg );
149-
150- if( mat_d->x != mat_s->y || mat_d->y != mat_s->x ) rb_raise( eDXRubyError, "要素数が一致していません。 - Matrix_*");
151- vresult = Matrix_allocate( cMatrix );
152- result = DXRUBY_GET_STRUCT( Matrix, vresult );
153- result->x = mat_s->x;
154- result->y = mat_d->y;
155-
156- for( i = 0; i < mat_d->y; i++ )
157- {
158- for( j = 0; j < mat_s->x; j++ )
159- {
160- for( k = 0; k < mat_s->x; k++ )
161- {
162- result->m[i][j] += mat_d->m[i][k] * mat_s->m[k][j];
163- }
164- }
165- }
166- }
167- return vresult;
168-}
169-
170-
171-static VALUE Matrix_to_s( VALUE self )
172-{
173- struct DXRubyMatrix *mat = DXRUBY_GET_STRUCT( Matrix, self );
174- char buf[1024];
175- char temp[256];
176- int i;
177-
178- sprintf( buf, "size = %d,%d ", mat->x, mat->y );
179-
180- for( i = 0; i < mat->y; i++ )
181- {
182- switch( mat->x ) {
183- case 1:
184- sprintf( temp, "(%f)", mat->m[i][0] );
185- strcat( buf, temp );
186- break;
187- case 2:
188- sprintf( temp, "(%f, %f)", mat->m[i][0], mat->m[i][1] );
189- strcat( buf, temp );
190- break;
191- case 3:
192- sprintf( temp, "(%f, %f, %f)", mat->m[i][0], mat->m[i][1], mat->m[i][2] );
193- strcat( buf, temp );
194- break;
195- default:
196- sprintf( temp, "(%f, %f, %f, %f)", mat->m[i][0], mat->m[i][1], mat->m[i][2], mat->m[i][3] );
197- strcat( buf, temp );
198- break;
199- }
200- }
201-
202- return rb_str_new2( buf );
203-}
204-
205-/* ビュー行列作成 */
206-static VALUE Matrix_look_at( VALUE klass, VALUE veye, VALUE vat, VALUE vup )
207-{
208- struct DXRubyMatrix *result;
209- D3DVECTOR eye, at, up;
210- struct DXRubyVector *vec_eye, *vec_at, *vec_up;
211- VALUE vresult;
212-
213- DXRUBY_CHECK_TYPE( Vector, veye );
214- vec_eye = DXRUBY_GET_STRUCT( Vector, veye );
215- DXRUBY_CHECK_TYPE( Vector, vat );
216- vec_at = DXRUBY_GET_STRUCT( Vector, vat );
217- DXRUBY_CHECK_TYPE( Vector, vup );
218- vec_up = DXRUBY_GET_STRUCT( Vector, vup );
219-
220- vresult = Matrix_allocate( cMatrix );
221- result = DXRUBY_GET_STRUCT( Matrix, vresult );
222-
223-// memcpy( &matrix, mat->m, sizeof( float ) * 16 );
224-// D3DXMatrixInverse( (D3DMATRIX *)result->m, 0, (D3DMATRIX *)mat->m);
225-
226- eye.x = vec_eye->v1;
227- eye.y = vec_eye->v2;
228- eye.z = vec_eye->v3;
229- at.x = vec_at->v1;
230- at.y = vec_at->v2;
231- at.z = vec_at->v3;
232- up.x = vec_up->v1;
233- up.y = vec_up->v2;
234- up.z = vec_up->v3;
235- D3DXMatrixLookAtLH( (D3DMATRIX *)result->m, &eye, &at, &up );
236-
237- result->x = 4;
238- result->y = 4;
239- return vresult;
240-}
241-
242-
243-/* 射影変換行列作成 */
244-static VALUE Matrix_create_projection( VALUE klass, VALUE vwidth, VALUE vheight, VALUE vzn, VALUE vzf )
245-{
246- struct DXRubyMatrix *result;
247- VALUE vresult;
248- vresult = Matrix_allocate( cMatrix );
249- result = DXRUBY_GET_STRUCT( Matrix, vresult );
250- result->x = result->y = 4;
251-
252- D3DXMatrixPerspectiveLH( (D3DMATRIX*)result->m, NUM2FLOAT( vwidth ), NUM2FLOAT( vheight ), NUM2FLOAT( vzn ), NUM2FLOAT( vzf ) );
253-
254- return vresult;
255-}
256-
257-
258-/* 射影変換行列作成(画角指定) */
259-static VALUE Matrix_create_projection_fov( VALUE klass, VALUE vfov, VALUE vaspect, VALUE vzn, VALUE vzf )
260-{
261- struct DXRubyMatrix *result;
262- D3DMATRIX matrix;
263- VALUE vresult;
264- float angle;
265- vresult = Matrix_allocate( cMatrix );
266- result = DXRUBY_GET_STRUCT( Matrix, vresult );
267- result->x = result->y = 4;
268-
269- angle = pi / 180.0f * NUM2FLOAT( vfov );
270- D3DXMatrixPerspectiveFovLH( (D3DMATRIX*)result->m, angle, NUM2FLOAT( vaspect ), NUM2FLOAT( vzn ), NUM2FLOAT( vzf ) );
271-
272- return vresult;
273-}
274-
275-
276-/* 正射影変換行列作成 */
277-static VALUE Matrix_create_projection_ortho( VALUE klass, VALUE vwidth, VALUE vheight, VALUE vzn, VALUE vzf )
278-{
279- struct DXRubyMatrix *result;
280- D3DMATRIX matrix;
281- VALUE vresult;
282- vresult = Matrix_allocate( cMatrix );
283- result = DXRUBY_GET_STRUCT( Matrix, vresult );
284- result->x = result->y = 4;
285-
286- D3DXMatrixOrthoLH( (D3DMATRIX*)result->m, NUM2FLOAT( vwidth ), NUM2FLOAT( vheight ), NUM2FLOAT( vzn ), NUM2FLOAT( vzf ) );
287-
288- return vresult;
289-}
290-
291-
292-/* 2D回転行列作成 */
293-static VALUE Matrix_create_rot( VALUE klass, VALUE vangle )
294-{
295- struct DXRubyMatrix *result;
296- VALUE vresult;
297- float angle;
298-
299- vresult = Matrix_allocate( cMatrix );
300- result = DXRUBY_GET_STRUCT( Matrix, vresult );
301-
302- result->x = 3;
303- result->y = 3;
304- angle = pi / 180.0f * NUM2FLOAT( vangle );
305- result->m11 = cos( angle );
306- result->m12 = sin( angle );
307- result->m21 = -result->m12;
308- result->m22 = result->m11;
309- result->m33 = 1;
310-
311- return vresult;
312-}
313-/* x軸回転行列作成 */
314-static VALUE Matrix_create_rot_x( VALUE klass, VALUE vangle )
315-{
316- struct DXRubyMatrix *result;
317- VALUE vresult;
318- float angle;
319-
320- vresult = Matrix_allocate( cMatrix );
321- result = DXRUBY_GET_STRUCT( Matrix, vresult );
322-
323- result->x = 4;
324- result->y = 4;
325- angle = pi / 180.0f * NUM2FLOAT( vangle );
326- result->m11 = 1;
327- result->m22 = cos( angle );
328- result->m23 = sin( angle );
329- result->m32 = -result->m23;
330- result->m33 = result->m22;
331- result->m44 = 1;
332-
333- return vresult;
334-}
335-/* y軸回転行列作成 */
336-static VALUE Matrix_create_rot_y( VALUE klass, VALUE vangle )
337-{
338- struct DXRubyMatrix *result;
339- VALUE vresult;
340- float angle;
341-
342- vresult = Matrix_allocate( cMatrix );
343- result = DXRUBY_GET_STRUCT( Matrix, vresult );
344-
345- result->x = 4;
346- result->y = 4;
347- angle = pi / 180.0f * NUM2FLOAT( vangle );
348- result->m11 = cos( angle );
349- result->m13 = -sin( angle );
350- result->m22 = 1;
351- result->m31 = -result->m13;
352- result->m33 = result->m11;
353- result->m44 = 1;
354-
355- return vresult;
356-}
357-/* z軸回転行列作成 */
358-static VALUE Matrix_create_rot_z( VALUE klass, VALUE vangle )
359-{
360- struct DXRubyMatrix *result;
361- VALUE vresult;
362- float angle;
363-
364- vresult = Matrix_allocate( cMatrix );
365- result = DXRUBY_GET_STRUCT( Matrix, vresult );
366-
367- result->x = 4;
368- result->y = 4;
369- angle = pi / 180.0f * NUM2FLOAT( vangle );
370- result->m11 = cos( angle );
371- result->m12 = sin( angle );
372- result->m21 = -result->m12;
373- result->m22 = result->m11;
374- result->m33 = 1;
375- result->m44 = 1;
376-
377- return vresult;
378-}
379-/* 平行移動行列作成 */
380-static VALUE Matrix_create_trans( int argc, VALUE *argv, VALUE self )
381-{
382- struct DXRubyMatrix *result;
383- VALUE vresult;
384-
385- if( argc < 1 || argc > 3 ) rb_raise( eDXRubyError, "引数の数が正しくありません。 - Matrix_create_trans");
386-
387- vresult = Matrix_allocate( cMatrix );
388- result = DXRUBY_GET_STRUCT( Matrix, vresult );
389-
390- if( argc == 1 )
391- {
392- result->x = 2;
393- result->y = 2;
394- result->m11 = 1;
395- result->m21 = NUM2FLOAT( argv[0] );
396- result->m22 = 1;
397- }
398- else if( argc == 2 )
399- {
400- result->x = 3;
401- result->y = 3;
402- result->m11 = 1;
403- result->m22 = 1;
404- result->m31 = NUM2FLOAT( argv[0] );
405- result->m32 = NUM2FLOAT( argv[1] );
406- result->m33 = 1;
407- }
408- else if( argc == 3)
409- {
410- result->x = 4;
411- result->y = 4;
412- result->m11 = 1;
413- result->m22 = 1;
414- result->m33 = 1;
415- result->m41 = NUM2FLOAT( argv[0] );
416- result->m42 = NUM2FLOAT( argv[1] );
417- result->m43 = NUM2FLOAT( argv[2] );
418- result->m44 = 1;
419- }
420-
421- return vresult;
422-}
423-/* スケーリング行列作成 */
424-static VALUE Matrix_create_scale( int argc, VALUE *argv, VALUE self )
425-{
426- struct DXRubyMatrix *result;
427- VALUE vresult;
428-
429- if( argc < 1 || argc > 3 ) rb_raise( eDXRubyError, "引数の数が正しくありません。 - Matrix_create_scale");
430-
431- vresult = Matrix_allocate( cMatrix );
432- result = DXRUBY_GET_STRUCT( Matrix, vresult );
433-
434- if( argc == 1 )
435- {
436- result->x = 2;
437- result->y = 2;
438- result->m11 = NUM2FLOAT( argv[0] );
439- result->m22 = 1;
440- }
441- else if( argc == 2 )
442- {
443- result->x = 3;
444- result->y = 3;
445- result->m11 = NUM2FLOAT( argv[0] );
446- result->m22 = NUM2FLOAT( argv[1] );
447- result->m33 = 1;
448- }
449- else if( argc == 3)
450- {
451- result->x = 4;
452- result->y = 4;
453- result->m11 = NUM2FLOAT( argv[0] );
454- result->m22 = NUM2FLOAT( argv[1] );
455- result->m33 = NUM2FLOAT( argv[2] );
456- result->m44 = 1;
457- }
458-
459- return vresult;
460-}
461-
462-/* 配列化 */
463-static VALUE Matrix_to_a( VALUE self )
464-{
465- struct DXRubyMatrix *mat = DXRUBY_GET_STRUCT( Matrix, self );
466- VALUE vresult;
467- int i, j;
468-
469- vresult = rb_ary_new();
470- for( i = 0; i < mat->y; i++ )
471- {
472- for( j = 0; j < mat->x; j++ )
473- {
474- rb_ary_push( vresult, rb_float_new( mat->m[i][j] ) );
475- }
476- }
477- return vresult;
478-}
479-
480-/* 逆行列作成 */
481-static VALUE Matrix_inverse( VALUE self )
482-{
483- struct DXRubyMatrix *mat = DXRUBY_GET_STRUCT( Matrix, self );
484- struct DXRubyMatrix *result;
485- VALUE vresult;
486-
487- vresult = Matrix_allocate( cMatrix );
488- result = DXRUBY_GET_STRUCT( Matrix, vresult );
489- result->x = result->y = 4;
490- D3DXMatrixInverse( (D3DMATRIX *)&result->m, 0, (D3DMATRIX *)&mat->m);
491-
492- return vresult;
493-}
494-
495-
496-/*********************************************************************
497- * Vectorクラス
498- *
499- * ベクトルを表現する。
500- *********************************************************************/
501-
502-/*--------------------------------------------------------------------
503- 参照されなくなったときにGCから呼ばれる関数
504- ---------------------------------------------------------------------*/
505-void Vector_release( struct DXRubyVector* vec )
506-{
507- vec->v1 = 0;
508- free( vec );
509-}
510-
511-#ifdef DXRUBY_USE_TYPEDDATA
512-const rb_data_type_t Vector_data_type = {
513- "Vector",
514- {
515- 0,
516- Vector_release,
517- 0,
518- },
519- NULL, NULL
520-};
521-#endif
522-
523-/*--------------------------------------------------------------------
524- Vectorクラスのallocate。メモリを確保する為にinitialize前に呼ばれる。
525- ---------------------------------------------------------------------*/
526-VALUE Vector_allocate( VALUE klass )
527-{
528- VALUE obj;
529- struct DXRubyVector *vec;
530-
531- /* DXRubyVectorのメモリ取得＆Vectorオブジェクト生成 */
532- vec = malloc( sizeof( struct DXRubyVector ) );
533- if( vec == NULL ) rb_raise( eDXRubyError, "メモリの取得に失敗しました - Vector_allocate" );
534-#ifdef DXRUBY_USE_TYPEDDATA
535- obj = TypedData_Wrap_Struct( klass, &Vector_data_type, vec );
536-#else
537- obj = Data_Wrap_Struct( klass, 0, Vector_release, vec );
538-#endif
539- vec->x = 0;
540- vec->v1 = 0;
541- vec->v2 = 0;
542- vec->v3 = 0;
543- vec->v4 = 0;
544-
545- return obj;
546-}
547-
548-/*--------------------------------------------------------------------
549- VectorクラスのInitialize
550- ---------------------------------------------------------------------*/
551-static VALUE Vector_initialize( int argc, VALUE *argv, VALUE self )
552-{
553- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
554- VALUE *ary_p;
555- int i, count;
556-
557- if( argc == 0 )
558- {
559- return self;
560- }
561-
562- if( argc == 1 && TYPE( argv[0] ) == T_ARRAY )
563- {
564- if( RARRAY_LEN( argv[0] ) > 4 || RARRAY_LEN( argv[0] ) < 1 ) rb_raise( eDXRubyError, "配列の要素数が正しくありません。 - Vector_initialize");
565- ary_p = RARRAY_PTR( argv[0] );
566- count = RARRAY_LEN( argv[0] );
567- }
568- else
569- {
570- if( argc > 4 ) rb_raise( eDXRubyError, "引数の数が正しくありません。 - Vector_initialize");
571- ary_p = argv;
572- count = argc;
573- }
574-
575- vec->x = count;
576- for( i = 0; i < count; i++ )
577- {
578- vec->v[i] = NUM2FLOAT( ary_p[i] );
579- }
580-
581- return self;
582-}
583-
584-static VALUE Vector_mul( VALUE self, VALUE varg )
585-{
586- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
587- struct DXRubyVector *result;
588- VALUE vresult;
589- vresult = Vector_allocate( cVector );
590- result = DXRUBY_GET_STRUCT( Vector, vresult );
591- result->x = vec->x;
592-
593- if( FIXNUM_P( varg ) || TYPE( varg ) == T_FLOAT || TYPE( varg ) == T_BIGNUM )
594- {
595- int i;
596-
597- for( i = 0; i < vec->x; i++ )
598- {
599- result->v[i] = vec->v[i] * NUM2FLOAT( varg );
600- }
601- }
602- else if( DXRUBY_CHECK( Vector, varg ) )
603- {
604- int i;
605- struct DXRubyVector* vec_s = DXRUBY_GET_STRUCT( Vector, varg );
606-
607- for( i = 0; i < vec->x; i++ )
608- {
609- result->v[i] = vec->v[i];
610- }
611-
612- for( i = 0; i < vec->x && i < vec_s->x; i++ )
613- {
614- result->v[i] = vec->v[i] * vec_s->v[i];
615- }
616- }
617- else if( DXRUBY_CHECK( Matrix, varg ) )
618- {
619- struct DXRubyMatrix *mat;
620- int i, j;
621- float temp[4] = {1.0f,1.0f,1.0f,1.0f};
622- DXRUBY_CHECK_TYPE( Matrix, varg );
623- mat = DXRUBY_GET_STRUCT( Matrix, varg );
624-
625- if( vec->x != mat->y && vec->x != mat->y - 1 ) rb_raise( eDXRubyError, "要素数が一致していません。 - Vector_mul");
626- for( i = 0; i < vec->x; i++ )
627- {
628- temp[i] = vec->v[i];
629- }
630-
631- for( i = 0; i < mat->x; i++ )
632- {
633- for( j = 0; j < mat->y; j++)
634- {
635- result->v[i] += temp[j] * mat->m[j][i];
636- }
637- }
638-
639- for( i = result->x; i < 4; i++)
640- {
641- result->v[i] = 0.0f;
642- }
643- }
644- else
645- {
646- rb_raise( eDXRubyError, "引数が異常です - Vector_mul");
647- }
648-
649- return vresult;
650-}
651-
652-static VALUE Vector_add( VALUE self, VALUE varg )
653-{
654- struct DXRubyVector *vec_d = DXRUBY_GET_STRUCT( Vector, self );
655- struct DXRubyVector *vec_s;
656- struct DXRubyVector *result;
657- VALUE vresult;
658- int i;
659-
660- vresult = Vector_allocate( cVector );
661- result = DXRUBY_GET_STRUCT( Vector, vresult );
662- result->x = vec_d->x;
663-
664- if( FIXNUM_P( varg ) || TYPE( varg ) == T_FLOAT || TYPE( varg ) == T_BIGNUM )
665- {
666- for( i = 0; i < vec_d->x; i++ )
667- {
668- result->v[i] = vec_d->v[i] + NUM2FLOAT( varg );
669- }
670- }
671- else
672- {
673- DXRUBY_CHECK_TYPE( Vector, varg );
674- vec_s = DXRUBY_GET_STRUCT( Vector, varg );
675-
676- for( i = 0; i < vec_d->x; i++ )
677- {
678- result->v[i] = vec_d->v[i];
679- }
680-
681- for( i = 0; i < vec_d->x && i < vec_s->x; i++ )
682- {
683- result->v[i] = vec_d->v[i] + vec_s->v[i];
684- }
685- }
686-
687- return vresult;
688-}
689-
690-static VALUE Vector_sub( VALUE self, VALUE varg )
691-{
692- struct DXRubyVector *vec_d = DXRUBY_GET_STRUCT( Vector, self );
693- struct DXRubyVector *vec_s;
694- struct DXRubyVector *result;
695- VALUE vresult;
696- int i;
697-
698- vresult = Vector_allocate( cVector );
699- result = DXRUBY_GET_STRUCT( Vector, vresult );
700- result->x = vec_d->x;
701-
702- if( FIXNUM_P( varg ) || TYPE( varg ) == T_FLOAT || TYPE( varg ) == T_BIGNUM )
703- {
704- for( i = 0; i < vec_d->x; i++ )
705- {
706- result->v[i] = vec_d->v[i] - NUM2FLOAT( varg );
707- }
708- }
709- else
710- {
711- DXRUBY_CHECK_TYPE( Vector, varg );
712- vec_s = DXRUBY_GET_STRUCT( Vector, varg );
713-
714- for( i = 0; i < vec_d->x; i++ )
715- {
716- result->v[i] = vec_d->v[i];
717- }
718-
719- for( i = 0; i < vec_d->x && i < vec_s->x; i++ )
720- {
721- result->v[i] = vec_d->v[i] - vec_s->v[i];
722- }
723- }
724-
725- return vresult;
726-}
727-
728-static VALUE Vector_div( VALUE self, VALUE varg )
729-{
730- struct DXRubyVector *vec_d = DXRUBY_GET_STRUCT( Vector, self );
731- struct DXRubyVector *vec_s;
732- struct DXRubyVector *result;
733- VALUE vresult;
734- int i;
735-
736- vresult = Vector_allocate( cVector );
737- result = DXRUBY_GET_STRUCT( Vector, vresult );
738- result->x = vec_d->x;
739-
740- if( FIXNUM_P( varg ) || TYPE( varg ) == T_FLOAT || TYPE( varg ) == T_BIGNUM )
741- {
742- for( i = 0; i < vec_d->x; i++ )
743- {
744- result->v[i] = vec_d->v[i] / NUM2FLOAT( varg );
745- }
746- }
747- else
748- {
749- DXRUBY_CHECK_TYPE( Vector, varg );
750- vec_s = DXRUBY_GET_STRUCT( Vector, varg );
751-
752- for( i = 0; i < vec_d->x; i++ )
753- {
754- result->v[i] = vec_d->v[i];
755- }
756-
757- for( i = 0; i < vec_d->x && i < vec_s->x; i++ )
758- {
759- result->v[i] = vec_d->v[i] / vec_s->v[i];
760- }
761- }
762-
763- return vresult;
764-}
765-
766-static VALUE Vector_minus( VALUE self )
767-{
768- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
769- struct DXRubyVector *result;
770- VALUE vresult;
771- int i;
772-
773- vresult = Vector_allocate( cVector );
774- result = DXRUBY_GET_STRUCT( Vector, vresult );
775- result->x = vec->x;
776-
777- for( i = 0; i < vec->x; i++ )
778- {
779- result->v[i] = -vec->v[i];
780- }
781-
782- return vresult;
783-}
784-
785-static VALUE Vector_normalize( VALUE self )
786-{
787- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
788- struct DXRubyVector *result;
789- VALUE vresult;
790- float magsq = vec->v1*vec->v1 + vec->v2*vec->v2 + vec->v3*vec->v3 + vec->v4*vec->v4;
791- int i;
792-
793- vresult = Vector_allocate( cVector );
794- result = DXRUBY_GET_STRUCT( Vector, vresult );
795- result->x = vec->x;
796-
797- if( magsq > 0.0f )
798- {
799- float temp = 1.0f / sqrt( magsq );
800- int i;
801- for( i = 0; i < vec->x; i++ )
802- {
803- result->v[i] = temp * vec->v[i];
804- }
805- }
806-
807- return vresult;
808-}
809-
810-static VALUE Vector_distance( VALUE klass, VALUE vvec1, VALUE vvec2 )
811-{
812- struct DXRubyVector *vec1;
813- struct DXRubyVector *vec2;
814- float dx, dy, dz, dw;
815-
816- DXRUBY_CHECK_TYPE( Vector, vvec1 );
817- DXRUBY_CHECK_TYPE( Vector, vvec2 );
818- vec1 = DXRUBY_GET_STRUCT( Vector, vvec1 );
819- vec2 = DXRUBY_GET_STRUCT( Vector, vvec2 );
820-
821- dx = vec1->v1 - vec2->v1;
822- dy = vec1->v2 - vec2->v2;
823- dz = vec1->v3 - vec2->v3;
824- dw = vec1->v4 - vec2->v4;
825- return rb_float_new( sqrt( dx*dx + dy*dy + dz*dz + dw*dw ) );
826-}
827-
828-static VALUE Vector_cross_product( VALUE klass, VALUE vvec1, VALUE vvec2 )
829-{
830- struct DXRubyVector *vec1;
831- struct DXRubyVector *vec2;
832- struct DXRubyVector *result;
833- VALUE vresult;
834-
835- DXRUBY_CHECK_TYPE( Vector, vvec1 );
836- DXRUBY_CHECK_TYPE( Vector, vvec2 );
837- vec1 = DXRUBY_GET_STRUCT( Vector, vvec1 );
838- vec2 = DXRUBY_GET_STRUCT( Vector, vvec2 );
839-
840- vresult = Vector_allocate( cVector );
841- result = DXRUBY_GET_STRUCT( Vector, vresult );
842- result->x = 3;
843-
844- result->v1 = vec1->v2*vec2->v3 - vec1->v3*vec2->v2;
845- result->v2 = vec1->v3*vec2->v1 - vec1->v1*vec2->v3;
846- result->v3 = vec1->v1*vec2->v2 - vec1->v2*vec2->v1;
847-
848- return vresult;
849-}
850-
851-static VALUE Vector_dot_product( VALUE klass, VALUE vvec1, VALUE vvec2 )
852-{
853- struct DXRubyVector *vec1;
854- struct DXRubyVector *vec2;
855- DXRUBY_CHECK_TYPE( Vector, vvec1 );
856- DXRUBY_CHECK_TYPE( Vector, vvec2 );
857- vec1 = DXRUBY_GET_STRUCT( Vector, vvec1 );
858- vec2 = DXRUBY_GET_STRUCT( Vector, vvec2 );
859- return rb_float_new( vec1->v1 * vec2->v1 + vec1->v2 * vec2->v2 + vec1->v3 * vec2->v3 + vec1->v4 * vec2->v4 );
860-}
861-
862-static VALUE Vector_to_s( VALUE self )
863-{
864- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
865- char buf[1024];
866- switch( vec->x ) {
867- case 1:
868- sprintf( buf, "size = %d (%f)", vec->x, vec->v1 );
869- break;
870- case 2:
871- sprintf( buf, "size = %d (%f, %f)", vec->x, vec->v1, vec->v2 );
872- break;
873- case 3:
874- sprintf( buf, "size = %d (%f, %f, %f)", vec->x, vec->v1, vec->v2, vec->v3 );
875- break;
876- default:
877- sprintf( buf, "size = %d (%f, %f, %f, %f)", vec->x, vec->v1, vec->v2, vec->v3, vec->v4 );
878- break;
879- }
880- return rb_str_new2( buf );
881-}
882-
883-static VALUE Vector_get_x( VALUE self )
884-{
885- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
886- return rb_float_new(vec->v1);
887-}
888-
889-static VALUE Vector_get_y( VALUE self )
890-{
891- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
892- return rb_float_new(vec->v2);
893-}
894-
895-static VALUE Vector_get_z( VALUE self )
896-{
897- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
898- return rb_float_new(vec->v3);
899-}
900-
901-static VALUE Vector_get_w( VALUE self )
902-{
903- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
904- return rb_float_new(vec->v4);
905-}
906-
907-static VALUE Vector_get_size( VALUE self )
908-{
909- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
910- return rb_float_new(vec->x);
911-}
912-
913-static VALUE Vector_get_xy( VALUE self )
914-{
915- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
916- struct DXRubyVector *result;
917- VALUE vresult;
918-
919- vresult = Vector_allocate( cVector );
920- result = DXRUBY_GET_STRUCT( Vector, vresult );
921- result->x = 2;
922-
923- result->v1 = vec->v1;
924- result->v2 = vec->v2;
925-
926- return vresult;
927-}
928-
929-static VALUE Vector_get_xyz( VALUE self )
930-{
931- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
932- struct DXRubyVector *result;
933- VALUE vresult;
934-
935- vresult = Vector_allocate( cVector );
936- result = DXRUBY_GET_STRUCT( Vector, vresult );
937- result->x = 3;
938-
939- result->v1 = vec->v1;
940- result->v2 = vec->v2;
941- result->v3 = vec->v3;
942-
943- return vresult;
944-}
945-
946-static VALUE Vector_equal( VALUE self, VALUE vvector )
947-{
948- struct DXRubyVector *vec_d = DXRUBY_GET_STRUCT( Vector, self );
949- struct DXRubyVector *vec_s;
950- int i;
951-
952- DXRUBY_CHECK_TYPE( Vector, vvector );
953- vec_s = DXRUBY_GET_STRUCT( Vector, vvector );
954-
955- if( vec_d->x != vec_s->x )
956- {
957- return Qfalse;
958- }
959- for( i = 0; i < vec_d->x; i++ )
960- {
961- if( vec_d->v[i] != vec_s->v[i] )
962- {
963- return Qfalse;
964- }
965- }
966-
967- return Qtrue;
968-}
969-
970-static VALUE Vector_translate( int argc, VALUE *argv, VALUE self )
971-{
972- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
973- struct DXRubyVector *result;
974- VALUE vresult;
975- int i;
976-
977- if( argc < 1 || argc > 4 ) rb_raise( eDXRubyError, "引数の数が正しくありません。 - Vector_translate");
978- vresult = Vector_allocate( cVector );
979- result = DXRUBY_GET_STRUCT( Vector, vresult );
980- result->x = vec->x;
981-
982- for( i = 0; i < vec->x; i++ )
983- {
984- result->v[i] = vec->v[i];
985- }
986-
987- for( i = 0; i < vec->x && i < argc; i++ )
988- {
989- result->v[i] = vec->v[i] + NUM2FLOAT( argv[i] );
990- }
991-
992- return vresult;
993-}
994-
995-static VALUE Vector_rotate( int argc, VALUE *argv, VALUE obj )
996-{
997- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, obj );
998- struct DXRubyVector *center = NULL;
999- struct DXRubyVector *result;
1000- VALUE vresult, vangle, vcenter;
1001- float angle, x, y;
1002-
1003- if( vec->x != 2 && vec->x != 3 ) rb_raise( eDXRubyError, "2D回転できるVectorではありません - Vector_rotate");
1004-
1005- rb_scan_args( argc, argv, "11", &vangle, &vcenter );
1006-
1007- if( vcenter != Qnil )
1008- {
1009- center = DXRUBY_GET_STRUCT( Vector, vcenter );
1010- if( center->x != 2 && center->x != 3 ) rb_raise( eDXRubyError, "回転中心に設定できるVectorではありません - Vector_rotate");
1011- }
1012-
1013- vresult = Vector_allocate( cVector );
1014- result = DXRUBY_GET_STRUCT( Vector, vresult );
1015- result->x = vec->x;
1016- x = vec->v1;
1017- y = vec->v2;
1018-
1019- if( center )
1020- {
1021- x -= center->v1;
1022- y -= center->v2;
1023- }
1024-
1025- angle = pi / 180.0f * NUM2FLOAT( vangle );
1026- x = cos( angle ) * x - sin( angle ) * y;
1027- y = sin( angle ) * x + cos( angle ) * y;
1028-
1029- if( center )
1030- {
1031- x += center->v1;
1032- y += center->v2;
1033- }
1034-
1035- result->v1 = x;
1036- result->v2 = y;
1037- result->v3 = vec->v3;
1038-
1039- return vresult;
1040-}
1041-
1042-static VALUE Vector_rotate_x( VALUE self, VALUE vangle )
1043-{
1044- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
1045- struct DXRubyVector *result;
1046- VALUE vresult;
1047- float angle;
1048-
1049- if( vec->x != 3 && vec->x != 4 ) rb_raise( eDXRubyError, "3D回転できるVectorではありません - Vector_rotate_x");
1050- vresult = Vector_allocate( cVector );
1051- result = DXRUBY_GET_STRUCT( Vector, vresult );
1052- result->x = vec->x;
1053-
1054- angle = pi / 180.0f * NUM2FLOAT( vangle );
1055- result->v1 = vec->v1;
1056- result->v2 = -sin( angle ) * vec->v2 + cos( angle ) * vec->v3;
1057- result->v3 = cos( angle ) * vec->v2 + sin( angle ) * vec->v3;
1058- result->v4 = vec->v4;
1059-
1060- return vresult;
1061-}
1062-
1063-static VALUE Vector_rotate_y( VALUE self, VALUE vangle )
1064-{
1065- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
1066- struct DXRubyVector *result;
1067- VALUE vresult;
1068- float angle;
1069-
1070- if( vec->x != 3 && vec->x != 4 ) rb_raise( eDXRubyError, "3D回転できるVectorではありません - Vector_rotate_x");
1071- vresult = Vector_allocate( cVector );
1072- result = DXRUBY_GET_STRUCT( Vector, vresult );
1073- result->x = vec->x;
1074-
1075- angle = pi / 180.0f * NUM2FLOAT( vangle );
1076- result->v1 = sin( angle ) * vec->v1 + cos( angle ) * vec->v3;
1077- result->v2 = vec->v2;
1078- result->v3 = cos( angle ) * vec->v1 - sin( angle ) * vec->v3;
1079- result->v4 = vec->v4;
1080-
1081- return vresult;
1082-}
1083-
1084-static VALUE Vector_rotate_z( VALUE self, VALUE vangle )
1085-{
1086- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
1087- struct DXRubyVector *result;
1088- VALUE vresult;
1089- float angle;
1090-
1091- if( vec->x != 3 && vec->x != 4 ) rb_raise( eDXRubyError, "3D回転できるVectorではありません - Vector_rotate_x");
1092- vresult = Vector_allocate( cVector );
1093- result = DXRUBY_GET_STRUCT( Vector, vresult );
1094- result->x = vec->x;
1095-
1096- angle = pi / 180.0f * NUM2FLOAT( vangle );
1097- result->v1 = cos( angle ) * vec->v1 - sin( angle ) * vec->v2;
1098- result->v2 = sin( angle ) * vec->v1 + cos( angle ) * vec->v2;
1099- result->v3 = vec->v3;
1100- result->v4 = vec->v4;
1101-
1102- return vresult;
1103-}
1104-
1105-/* 配列化 */
1106-static VALUE Vector_to_a( VALUE self )
1107-{
1108- struct DXRubyVector *vec = DXRUBY_GET_STRUCT( Vector, self );
1109- VALUE vresult;
1110- int i;
1111-
1112- vresult = rb_ary_new();
1113- for( i = 0; i < vec->x; i++ )
1114- {
1115- rb_ary_push( vresult, rb_float_new( vec->v[i] ) );
1116- }
1117- return vresult;
1118-}
1119-
1120-
1121-static VALUE Vector_angle_to( VALUE self, VALUE vvector )
1122-{
1123- struct DXRubyVector *vec_d = DXRUBY_GET_STRUCT( Vector, self );
1124- struct DXRubyVector *vec_s;
1125- float angle;
1126-
1127- DXRUBY_CHECK_TYPE( Vector, vvector );
1128- vec_s = DXRUBY_GET_STRUCT( Vector, vvector );
1129-
1130- angle = atan2(vec_s->v2 - vec_d->v2, vec_s->v1 - vec_d->v1) / pi * 180;
1131-
1132- return rb_float_new(angle);
1133-}
1134-
1135-
1136-/*
1137-***************************************************************
1138-*
1139-* Global functions
1140-*
1141-***************************************************************/
1142-
1143-void Init_dxruby_Matrix()
1144-{
1145-
1146- /* Matrixクラス定義 */
1147- cMatrix = rb_define_class_under( mDXRuby, "Matrix", rb_cObject );
1148-
1149- /* Matrixクラスにクラスメソッド登録*/
1150- rb_define_singleton_method( cMatrix, "look_at", Matrix_look_at, 3 );
1151- rb_define_singleton_method( cMatrix, "lookAt", Matrix_look_at, 3 );
1152- rb_define_singleton_method( cMatrix, "projection", Matrix_create_projection, 4 );
1153- rb_define_singleton_method( cMatrix, "projection_fov", Matrix_create_projection_fov, 4 );
1154- rb_define_singleton_method( cMatrix, "projectionFov", Matrix_create_projection_fov, 4 );
1155- rb_define_singleton_method( cMatrix, "projection_ortho", Matrix_create_projection_ortho, 4 );
1156- rb_define_singleton_method( cMatrix, "projectionOrtho", Matrix_create_projection_ortho, 4 );
1157- rb_define_singleton_method( cMatrix, "rotation", Matrix_create_rot, 1 );
1158- rb_define_singleton_method( cMatrix, "rotation_x", Matrix_create_rot_x, 1 );
1159- rb_define_singleton_method( cMatrix, "rotationX", Matrix_create_rot_x, 1 );
1160- rb_define_singleton_method( cMatrix, "rotation_y", Matrix_create_rot_y, 1 );
1161- rb_define_singleton_method( cMatrix, "rotationY", Matrix_create_rot_y, 1 );
1162- rb_define_singleton_method( cMatrix, "rotation_z", Matrix_create_rot_z, 1 );
1163- rb_define_singleton_method( cMatrix, "rotationZ", Matrix_create_rot_z, 1 );
1164- rb_define_singleton_method( cMatrix, "scaling", Matrix_create_scale, -1 );
1165- rb_define_singleton_method( cMatrix, "translation", Matrix_create_trans, -1 );
1166-
1167- /* Matrixクラスにインスタンスメソッド登録*/
1168- rb_define_private_method( cMatrix, "initialize", Matrix_initialize, -1 );
1169- rb_define_method( cMatrix, "*", Matrix_mul, 1 );
1170- rb_define_method( cMatrix, "to_s", Matrix_to_s, 0 );
1171- rb_define_method( cMatrix, "to_a", Matrix_to_a, 0 );
1172- rb_define_method( cMatrix, "inverse", Matrix_inverse, 0 );
1173-
1174- /* Matrixオブジェクトを生成した時にinitializeの前に呼ばれるメモリ割り当て関数登録 */
1175- rb_define_alloc_func( cMatrix, Matrix_allocate );
1176-
1177-
1178- /* Vectorクラス定義 */
1179- cVector = rb_define_class_under( mDXRuby, "Vector", rb_cObject );
1180-
1181- /* Vectorクラスにクラスメソッド登録*/
1182- rb_define_singleton_method( cVector, "distance", Vector_distance, 2 );
1183- rb_define_singleton_method( cVector, "cross_product", Vector_cross_product, 2 );
1184- rb_define_singleton_method( cVector, "crossProduct", Vector_cross_product, 2 );
1185- rb_define_singleton_method( cVector, "dot_product", Vector_dot_product, 2 );
1186- rb_define_singleton_method( cVector, "dotProduct", Vector_dot_product, 2 );
1187-
1188- /* Vectorクラスにインスタンスメソッド登録*/
1189- rb_define_private_method( cVector, "initialize", Vector_initialize, -1 );
1190- rb_define_method( cVector, "*", Vector_mul, 1 );
1191- rb_define_method( cVector, "+", Vector_add, 1 );
1192- rb_define_method( cVector, "-", Vector_sub, 1 );
1193- rb_define_method( cVector, "-@", Vector_minus, 0 );
1194- rb_define_method( cVector, "/", Vector_div, 1 );
1195- rb_define_method( cVector, "to_s", Vector_to_s, 0 );
1196- rb_define_method( cVector, "to_a", Vector_to_a, 0 );
1197- rb_define_method( cVector, "x", Vector_get_x, 0 );
1198- rb_define_method( cVector, "y", Vector_get_y, 0 );
1199- rb_define_method( cVector, "z", Vector_get_z, 0 );
1200- rb_define_method( cVector, "w", Vector_get_w, 0 );
1201- rb_define_method( cVector, "xy", Vector_get_xy, 0 );
1202- rb_define_method( cVector, "xyz", Vector_get_xyz, 0 );
1203- rb_define_method( cVector, "size", Vector_get_size, 0 );
1204- rb_define_method( cVector, "normalize", Vector_normalize, 0 );
1205- rb_define_method( cVector, "==", Vector_equal, 1 );
1206- rb_define_method( cVector, "translate", Vector_translate, -1 );
1207- rb_define_method( cVector, "rotate", Vector_rotate, -1 );
1208- rb_define_method( cVector, "rotate_x", Vector_rotate_x, 1 );
1209- rb_define_method( cVector, "rotateX", Vector_rotate_x, 1 );
1210- rb_define_method( cVector, "rotate_y", Vector_rotate_y, 1 );
1211- rb_define_method( cVector, "rotateY", Vector_rotate_y, 1 );
1212- rb_define_method( cVector, "rotate_z", Vector_rotate_z, 1 );
1213- rb_define_method( cVector, "rotateZ", Vector_rotate_z, 1 );
1214- rb_define_method( cVector, "angle_to", Vector_angle_to, 1 );
1215- rb_define_method( cVector, "angleTo", Vector_angle_to, 1 );
1216-
1217- /* Vectorオブジェクトを生成した時にinitializeの前に呼ばれるメモリ割り当て関数登録 */
1218- rb_define_alloc_func( cVector, Vector_allocate );
1219-
1220-}
1221-
--- branches/1.4.3/version.h (revision 531)
+++ branches/1.4.3/version.h (revision 532)
@@ -1,10 +1,10 @@
11 /*
22 ###################################
33 #
4-# DXRuby 1.5.20dev
4+# DXRuby 1.4.3
55 #
66 ###################################
77 */
8-#define DXRUBY_VERSION "1.5.20dev"
8+#define DXRUBY_VERSION "1.4.3"
99
10-#define DXRUBY15
10+//#define DXRUBY15
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