Attachment 5209 Details for Bug 6412 – use t_vertex.c - try 3

[patch] use t_vertex.c - try 3

mach64-tnl-2.patch (text/plain), 50.02 KB, created by George - on 2006-04-07 07:44:00 UTC

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Creator: George -

Created: 2006-04-07 07:44:00 UTC

Size: 50.02 KB

patch

obsolete

>Common subdirectories: mach64/CVS and mach64-sap-1/CVS
>diff -au -x 'depend*' -x '*o' -x '*swp' mach64/mach64_context.c mach64-sap-1/mach64_context.c
>--- mach64/mach64_context.c	2005-10-19 05:46:42.000000000 +0300
>+++ mach64-sap-1/mach64_context.c	2006-04-05 01:13:58.000000000 +0300
>@@ -221,7 +221,9 @@
> 
>    driInitExtensions( ctx, card_extensions, GL_TRUE );
> 
>+#if MACH64_NATIVE_VTXFMT
>    mach64InitVB( ctx );
>+#endif
>    mach64InitTriFuncs( ctx );
>    mach64DDInitStateFuncs( ctx );
>    mach64DDInitSpanFuncs( ctx );
>@@ -275,7 +277,9 @@
>       _ac_DestroyContext( mmesa->glCtx );
>       _swrast_DestroyContext( mmesa->glCtx );
> 
>+#if MACH64_NATIVE_VTXFMT
>       mach64FreeVB( mmesa->glCtx );
>+#endif
> 
>       /* Free the vertex buffer */
>       if ( mmesa->vert_buf )
>diff -au -x 'depend*' -x '*o' -x '*swp' mach64/mach64_context.h mach64-sap-1/mach64_context.h
>--- mach64/mach64_context.h	2006-04-04 18:51:58.000000000 +0300
>+++ mach64-sap-1/mach64_context.h	2006-04-07 00:32:56.000000000 +0300
>@@ -37,6 +37,7 @@
> #include "mach64_drm.h"
> 
> #include "mtypes.h"
>+#include "tnl/t_vertex.h"
> 
> #include "mach64_reg.h"
> 
>@@ -58,6 +59,9 @@
> /* Native vertex format */
> #define MACH64_NATIVE_VTXFMT		1
> 
>+/* premultiply texture coordinates by homogenous coordinate */
>+#define MACH64_PREMULT_TEXCOORDS
>+
> /* Flags for what context state needs to be updated:
>  */
> #define MACH64_NEW_ALPHA		0x0001
>@@ -83,7 +87,8 @@
> #define MACH64_FALLBACK_SEP_SPECULAR	0x0040
> #define MACH64_FALLBACK_BLEND_EQ	0x0080
> #define MACH64_FALLBACK_BLEND_FUNC	0x0100
>-#define MACH64_FALLBACK_DISABLE		0x0200
>+#define MACH64_FALLBACK_PROJTEX		0x0200
>+#define MACH64_FALLBACK_DISABLE		0x0400
> 
> #define CARD32 GLuint		/* KW: For building in mesa tree */
> 
>@@ -203,6 +208,15 @@
>    GLuint dirty;			/* Hardware state to be updated */
>    drm_mach64_context_regs_t setup;
> 
>+   GLuint vertex_size;
>+   GLuint vertex_format;
>+   struct tnl_attr_map vertex_attrs[VERT_ATTRIB_MAX];
>+   GLuint vertex_attr_count;
>+   GLubyte *verts;			/* points to tnl->clipspace.vertex_buf */
>+   GLuint num_verts;
>+   int coloroffset, specoffset;
>+   int tnl_state;			/* tnl->render_inputs for this _tnl_install_attrs */
>+
>    GLuint NewGLState;
>    GLuint Fallback;
>    GLuint SetupIndex;
>@@ -210,11 +224,6 @@
>    GLuint RenderIndex;
>    GLfloat hw_viewport[16];
>    GLfloat depth_scale;
>-   GLuint vertex_size;
>-   GLuint vertex_stride_shift;
>-   GLuint vertex_format;
>-   GLuint num_verts;
>-   GLubyte *verts;		
> 
>    CARD32 Color;			/* Current draw color */
>    CARD32 ClearColor;			/* Color used to clear color buffer */
>diff -au -x 'depend*' -x '*o' -x '*swp' mach64/mach64_tris.c mach64-sap-1/mach64_tris.c
>--- mach64/mach64_tris.c	2006-04-05 19:34:11.000000000 +0300
>+++ mach64-sap-1/mach64_tris.c	2006-04-06 19:05:09.000000000 +0300
>@@ -70,6 +70,19 @@
>  *                    Emit primitives as inline vertices               *
>  ***********************************************************************/
> 
>+/* mach64 has two implementations of the vertex buffer, one that uses the 
>+ * template vertex format (and code from mesa/tnl) and one that uses the 
>+ * native vertex format (and code from mesa/tnl_dd).
>+ *
>+ * 		native	template
>+ * glxgears	228	228
>+ * teapot	 13.5	 12.7
>+ *
>+ * The "template" implementation can be further optimized by adding new
>+ * conversion routings in mesa/tnl that emit to the "native" vertex format.
>+ */
>+#if MACH64_NATIVE_VTXFMT
>+
> #if defined(USE_X86_ASM)
> #define DO_COPY_VERTEX( vb, vertsize, v, n, m )					\
> do {										\
>@@ -112,6 +125,116 @@
> #define COPY_VERTEX( vb, vertsize, v, n )	DO_COPY_VERTEX( vb, vertsize, v, n, 0 )
> #define COPY_VERTEX_OOA( vb, vertsize, v, n )	DO_COPY_VERTEX( vb, vertsize, v, n, 1 )
> 
>+#else
>+
>+#define DO_SET_XYZ( vn, n )						\
>+do {									\
>+   int __t = vertsize + 4;						\
>+   vn->ui[__t - 3] = (GLint)(vn->v.z) << 15;				\
>+   vn->ui[__t - 1] = (xx[n-1] << 16) | (yy[n-1] & 0xffff);		\
>+} while (0)
>+
>+#define DO_SET_W( vn, n )						\
>+do {									\
>+   int __t = vertsize + 4;						\
>+   if ( vertsize > 7 )							\
>+      vn->f[__t - 8] = vn->v.w;						\
>+									\
>+   if ( vertsize > 4 )							\
>+      vn->f[__t - 5] = vn->v.w;						\
>+} while (0)
>+
>+#ifdef MACH64_PREMULT_TEXCOORDS
>+
>+#define DO_COPY_VERTEX( vn, n, m )						\
>+do {										\
>+   CARD32 *__p = (CARD32 *)vn + 4;						\
>+   int __s = vertsize;								\
>+   GLfloat w = vn->v.w;								\
>+										\
>+   DO_SET_XYZ( vn, n );								\
>+										\
>+   if ( vertsize > 7 ) {							\
>+      LE32_OUT( vb++, (2 << 16) |						\
>+	    	      ADRINDEX( MACH64_VERTEX_##n##_SECONDARY_S ) );		\
>+      LE32_OUT_FLOAT( vb++, w * *(GLfloat *)__p++ );				\
>+      LE32_OUT_FLOAT( vb++, w * *(GLfloat *)__p++ );				\
>+      LE32_OUT_FLOAT( vb++, w ); __p++;						\
>+      __s -= 3;									\
>+   }										\
>+										\
>+   LE32_OUT( vb++, ((__s - 1 + m) << 16) |					\
>+	           (ADRINDEX( MACH64_VERTEX_##n##_X_Y ) - (__s - 1)) );		\
>+										\
>+   if ( vertsize > 4 ) {							\
>+      LE32_OUT_FLOAT( vb++, w * *(GLfloat *)__p++ );				\
>+      LE32_OUT_FLOAT( vb++, w * *(GLfloat *)__p++ );				\
>+      LE32_OUT_FLOAT( vb++, w ); __p++;						\
>+      __s -= 3;									\
>+   }										\
>+										\
>+   while ( __s-- ) {								\
>+      LE32_OUT( vb++, *__p++ );							\
>+   }										\
>+} while (0)
>+
>+#else
>+
>+#if defined(USE_X86_ASM)
>+#define DO_COPY_VERTEX( vn, n, m )						\
>+do {										\
>+   register const CARD32 *__p __asm__( "esi" ) = (CARD32 *)vn + 4;		\
>+   register int __s __asm__( "ecx" ) = vertsize;				\
>+										\
>+   DO_SET_XYZ( vn, n );								\
>+   DO_SET_W( vn, n );								\
>+										\
>+   if ( vertsize > 7 ) {							\
>+      *vb++ = (2 << 16) | ADRINDEX( MACH64_VERTEX_##n##_SECONDARY_S );		\
>+      __asm__ __volatile__( "movsl ; movsl ; movsl"				\
>+			    : "=D" (vb), "=S" (__p)				\
>+			    : "0" (vb), "1" (__p) );				\
>+      __s -= 3;									\
>+   }										\
>+   *vb++ = ((__s - 1 + m) << 16) |						\
>+   	   (ADRINDEX( MACH64_VERTEX_##n##_X_Y ) - (__s - 1) );			\
>+   __asm__ __volatile__( "rep ; movsl"						\
>+			 : "=%c" (__s), "=D" (vb), "=S" (__p)			\
>+			 : "0" (__s), "1" (vb), "2" (__p) );			\
>+} while (0)
>+#else
>+#define DO_COPY_VERTEX( vn, n, m )						\
>+do {										\
>+   CARD32 *__p = (CARD32 *)vn + 4;						\
>+   int __s = vertsize;								\
>+										\
>+   DO_SET_XYZ( vn, n );								\
>+   DO_SET_W( vn, n );								\
>+										\
>+   if ( vertsize > 7 ) {							\
>+      LE32_OUT( vb++, (2 << 16) |						\
>+	    	      ADRINDEX( MACH64_VERTEX_##n##_SECONDARY_S ) );		\
>+      LE32_OUT( vb++, *__p++ );							\
>+      LE32_OUT( vb++, *__p++ );							\
>+      LE32_OUT( vb++, *__p++ );							\
>+      __s -= 3;									\
>+   }										\
>+										\
>+   LE32_OUT( vb++, ((__s - 1 + m) << 16) |					\
>+	           (ADRINDEX( MACH64_VERTEX_##n##_X_Y ) - (__s - 1)) );		\
>+										\
>+   while ( __s-- ) {								\
>+      LE32_OUT( vb++, *__p++ );							\
>+   }										\
>+} while (0)
>+#endif
>+
>+#endif /* MACH64_PREMULT_TEXCOORDS */
>+
>+#define COPY_VERTEX( v, n )	DO_COPY_VERTEX( v, n, 0 )
>+#define COPY_VERTEX_OOA( v, n )	DO_COPY_VERTEX( v, n, 1 )
>+
>+#endif /* MACH64_NATIVE_VTXFMT */
> 
> static __inline void mach64_draw_quad( mach64ContextPtr mmesa,
> 				       mach64VertexPtr v0,
>@@ -200,20 +323,11 @@
>    }
> #endif
> #else
>-   GLuint vertsize = mmesa->vertex_size;
>-   GLint coloridx;
>+   GLuint vertsize = mmesa->vertex_size - 4;
>    GLfloat ooa;
>    GLint xx[3], yy[3]; /* 2 fractional bits for hardware */
>-   unsigned vbsiz = 
>-	 ((
>-	    1 +
>-	    (vertsize > 6 ? 2 : 0) +
>-	    (vertsize > 4 ? 2 : 0) +
>-	    3 +
>-	    (mmesa->multitex ? 4 : 0)
>-	 ) * 4 + 4);
>-   CARD32 *vb;
>-   unsigned vbidx = 0;
>+   unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * 4 + 2;
>+   CARD32 *vb, *vbchk;
> 
>    if ( MACH64_DEBUG & DEBUG_VERBOSE_PRIMS ) {
>       fprintf(stderr, "%s:\n", __FUNCTION__);
>@@ -259,109 +373,14 @@
>    }
>    
>    vb = (CARD32 *)mach64AllocDmaLow( mmesa, vbsiz * 4 );
>+   vbchk = vb + vbsiz;
>    
>    ooa = 1.0 / ooa;
> 
>-   coloridx = (vertsize > 4) ? 4: 3;
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                            /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v0->ui[8] ); /* MACH64_VERTEX_1_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[9] ); /* MACH64_VERTEX_1_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_SECONDARY_W */
>-   }
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_2_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_2_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_2_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[6] ); /* MACH64_VERTEX_2_S */
>-      LE32_OUT( &vb[vbidx++], v1->ui[7] ); /* MACH64_VERTEX_2_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[3] ); /* MACH64_VERTEX_2_W */
>-      LE32_OUT( &vb[vbidx++], v1->ui[5] ); /* MACH64_VERTEX_2_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v1->v.z) << 15) );         /* MACH64_VERTEX_2_Z */
>-   vb[vbidx++] = v1->ui[coloridx];                            /* MACH64_VERTEX_2_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[1] << 16) | (yy[1] & 0xffff) ); /* MACH64_VERTEX_2_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_2_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v1->ui[8] ); /* MACH64_VERTEX_2_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v1->ui[9] ); /* MACH64_VERTEX_2_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v1->ui[3] ); /* MACH64_VERTEX_2_SECONDARY_W */
>-   }
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_3_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_3_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_3_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v3->ui[6] ); /* MACH64_VERTEX_3_S */
>-      LE32_OUT( &vb[vbidx++], v3->ui[7] ); /* MACH64_VERTEX_3_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v3->ui[3] ); /* MACH64_VERTEX_3_W */
>-      LE32_OUT( &vb[vbidx++], v3->ui[5] ); /* MACH64_VERTEX_3_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v3->v.z) << 15) );         /* MACH64_VERTEX_3_Z */
>-   vb[vbidx++] = v3->ui[coloridx];                             /* MACH64_VERTEX_3_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[2] << 16) | (yy[2] & 0xffff) ); /* MACH64_VERTEX_3_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_3_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v3->ui[8] ); /* MACH64_VERTEX_3_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v3->ui[9] ); /* MACH64_VERTEX_3_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v3->ui[3] ); /* MACH64_VERTEX_3_SECONDARY_W */
>-   }
>-
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>+   COPY_VERTEX( v0, 1 );
>+   COPY_VERTEX( v1, 2 );
>+   COPY_VERTEX_OOA( v3, 3 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>    xx[0] = (GLint)(v2->v.x * 4);
>    yy[0] = (GLint)(v2->v.y * 4);
>@@ -370,42 +389,10 @@
> 			(yy[0] - yy[2]) * (xx[1] - xx[2]));
>    ooa = 1.0 / ooa;
> 
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v2->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v2->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v2->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v2->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v2->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v2->ui[coloridx];                             /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v2->ui[8] ); /* MACH64_VERTEX_1_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v2->ui[9] ); /* MACH64_VERTEX_1_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v2->ui[3] ); /* MACH64_VERTEX_1_SECONDARY_W */
>-   }
>+   COPY_VERTEX_OOA( v2, 1 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>-
>-   assert(vbsiz == vbidx);
>+   assert( vb == vbchk );
> 
> #if MACH64_PRINT_BUFFER
>    {
>@@ -491,20 +478,11 @@
>    }
> #endif
> #else
>-   GLuint vertsize = mmesa->vertex_size;
>-   GLint coloridx;
>+   GLuint vertsize = mmesa->vertex_size - 4;
>    GLfloat ooa;
>    GLint xx[3], yy[3]; /* 2 fractional bits for hardware */
>-   unsigned vbsiz = 
>-	 ((
>-	    1 +
>-	    (vertsize > 6 ? 2 : 0) +
>-	    (vertsize > 4 ? 2 : 0) +
>-	    3 +
>-	    (mmesa->multitex ? 4 : 0)
>-	 ) * 3 + 2);
>-   CARD32 *vb;
>-   unsigned vbidx = 0;
>+   unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * 3 + 1;
>+   CARD32 *vb, *vbchk;
> 
>    if ( MACH64_DEBUG & DEBUG_VERBOSE_PRIMS ) {
>       fprintf(stderr, "%s:\n", __FUNCTION__);
>@@ -548,111 +526,16 @@
>    }
> 
>    vb = (CARD32 *)mach64AllocDmaLow( mmesa, vbsiz * 4 );
>+   vbchk = vb + vbsiz;
>    
>    ooa = 1.0 / ooa;
> 
>-   coloridx = (vertsize > 4) ? 4: 3;
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v0->ui[8] ); /* MACH64_VERTEX_1_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[9] ); /* MACH64_VERTEX_1_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_SECONDARY_W */
>-   }
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_2_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_2_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_2_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[6] ); /* MACH64_VERTEX_2_S */
>-      LE32_OUT( &vb[vbidx++], v1->ui[7] ); /* MACH64_VERTEX_2_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[3] ); /* MACH64_VERTEX_2_W */
>-      LE32_OUT( &vb[vbidx++], v1->ui[5] ); /* MACH64_VERTEX_2_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v1->v.z) << 15) );         /* MACH64_VERTEX_2_Z */
>-   vb[vbidx++] = v1->ui[coloridx];                             /* MACH64_VERTEX_2_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[1] << 16) | (yy[1] & 0xffff) ); /* MACH64_VERTEX_2_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_2_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v1->ui[8] ); /* MACH64_VERTEX_2_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v1->ui[9] ); /* MACH64_VERTEX_2_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v1->ui[3] ); /* MACH64_VERTEX_2_SECONDARY_W */
>-   }
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_3_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_3_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_3_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v2->ui[6] ); /* MACH64_VERTEX_3_S */
>-      LE32_OUT( &vb[vbidx++], v2->ui[7] ); /* MACH64_VERTEX_3_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v2->ui[3] ); /* MACH64_VERTEX_3_W */
>-      LE32_OUT( &vb[vbidx++], v2->ui[5] ); /* MACH64_VERTEX_3_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v2->v.z) << 15) );         /* MACH64_VERTEX_3_Z */
>-   vb[vbidx++] = v2->ui[coloridx];                             /* MACH64_VERTEX_3_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[2] << 16) | (yy[2] & 0xffff) ); /* MACH64_VERTEX_3_X_Y */
>-
>-   if (mmesa->multitex) {
>-      /* setup for 3 sequential reg writes */
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_3_SECONDARY_S) );
>-      LE32_OUT( &vb[vbidx++], v2->ui[8] ); /* MACH64_VERTEX_3_SECONDARY_S */
>-      LE32_OUT( &vb[vbidx++], v2->ui[9] ); /* MACH64_VERTEX_3_SECONDARY_T */
>-      LE32_OUT( &vb[vbidx++], v2->ui[3] ); /* MACH64_VERTEX_3_SECONDARY_W */
>-   }
>-
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>+   COPY_VERTEX( v0, 1 );
>+   COPY_VERTEX( v1, 2 );
>+   COPY_VERTEX_OOA( v2, 3 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>-   assert(vbsiz == vbidx);
>+   assert( vb == vbchk );
> 
> #if MACH64_PRINT_BUFFER
>    {
>@@ -744,21 +627,12 @@
>    *pxy0 = xy0old;
>    *pxy1 = xy1old;
> #else /* !MACH64_NATIVE_VTXFMT */
>-   GLuint vertsize = mmesa->vertex_size;
>-   GLint coloridx;
>+   GLuint vertsize = mmesa->vertex_size - 4;
>    float width = 1.0; /* Only support 1 pix lines now */
>    GLfloat ooa;
>    GLint xx[3], yy[3]; /* 2 fractional bits for hardware */
>-   unsigned vbsiz = 
>-	 ((
>-	    1 +
>-	    (vertsize > 6 ? 2 : 0) +
>-	    (vertsize > 4 ? 2 : 0) +
>-	    3 +
>-	    (mmesa->multitex ? 4 : 0)
>-	 ) * 4 + 4);
>-   CARD32 *vb;
>-   unsigned vbidx = 0;
>+   unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * 4 + 2;
>+   CARD32 *vb, *vbchk;
>    
>    GLfloat hw, dx, dy, ix, iy;
>    GLfloat x0 = v0->v.x;
>@@ -837,85 +711,14 @@
>    }
> 
>    vb = (CARD32 *)mach64AllocDmaLow( mmesa, vbsiz * 4 );
>+   vbchk = vb + vbsiz;
>    
>    ooa = 1.0 / ooa;
> 
>-   coloridx = (vertsize > 4) ? 4: 3;
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_2_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_2_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_2_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[6] ); /* MACH64_VERTEX_2_S */
>-      LE32_OUT( &vb[vbidx++], v1->ui[7] ); /* MACH64_VERTEX_2_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[3] ); /* MACH64_VERTEX_2_W */
>-      LE32_OUT( &vb[vbidx++], v1->ui[5] ); /* MACH64_VERTEX_2_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v1->v.z) << 15) );         /* MACH64_VERTEX_2_Z */
>-   vb[vbidx++] = v1->ui[coloridx];                             /* MACH64_VERTEX_2_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[1] << 16) | (yy[1] & 0xffff) ); /* MACH64_VERTEX_2_X_Y */
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_3_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_3_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_3_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_3_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_3_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_3_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_3_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_3_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_3_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[2] << 16) | (yy[2] & 0xffff) ); /* MACH64_VERTEX_3_X_Y */
>-
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>+   COPY_VERTEX( v0, 1 );
>+   COPY_VERTEX( v1, 2 );
>+   COPY_VERTEX_OOA( v0, 3 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>    xx[0] = (GLint)((x1 + ix) * 4);
>    yy[0] = (GLint)((y1 + iy) * 4);
>@@ -924,34 +727,10 @@
> 			(yy[0] - yy[2]) * (xx[1] - xx[2]));
>    ooa = 1.0 / ooa;
> 
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v1->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v1->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v1->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v1->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v1->ui[coloridx];                             /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>+   COPY_VERTEX_OOA( v1, 1 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>-   assert(vbsiz == vbidx);
>+   assert( vb == vbchk );
> #endif
> }
> 
>@@ -1006,21 +785,12 @@
> 
>    *pxy = xyold;
> #else /* !MACH64_NATIVE_VTXFMT */
>-   GLuint vertsize = mmesa->vertex_size; 
>-   GLint coloridx;
>+   GLuint vertsize = mmesa->vertex_size - 4; 
>    float sz = 1.0; /* Only support 1 pix points now */
>    GLfloat ooa;
>    GLint xx[3], yy[3]; /* 2 fractional bits for hardware */
>-   unsigned vbsiz = 
>-	 ((
>-	    1 +
>-	    (vertsize > 6 ? 2 : 0) +
>-	    (vertsize > 4 ? 2 : 0) +
>-	    3 +
>-	    (mmesa->multitex ? 4 : 0)
>-	 ) * 4 + 4);
>-   CARD32 *vb;
>-   unsigned vbidx = 0;
>+   unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * 4 + 2;
>+   CARD32 *vb, *vbchk;
>    
>    if ( MACH64_DEBUG & DEBUG_VERBOSE_PRIMS ) {
>       fprintf(stderr, "%s:\n", __FUNCTION__);
>@@ -1060,85 +830,14 @@
>    }
> 
>    vb = (CARD32 *)mach64AllocDmaLow( mmesa, vbsiz * 4 );
>+   vbchk = vb + vbsiz;
>    
>    ooa = 1.0 / ooa;
> 
>-   coloridx = (vertsize > 4) ? 4: 3;
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_2_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_2_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_2_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_2_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_2_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_2_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_2_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_2_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_2_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[1] << 16) | (yy[1] & 0xffff) ); /* MACH64_VERTEX_2_X_Y */
>-
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_3_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_3_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_3_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_3_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_3_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_3_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_3_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_3_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_3_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[2] << 16) | (yy[2] & 0xffff) ); /* MACH64_VERTEX_3_X_Y */
>-
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>+   COPY_VERTEX( v0, 1 );
>+   COPY_VERTEX( v0, 2 );
>+   COPY_VERTEX_OOA( v0, 3 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>    xx[0] = (GLint)((v0->v.x + sz) * 4);
>    yy[0] = (GLint)((v0->v.y + sz) * 4);
>@@ -1147,34 +846,10 @@
> 			(yy[0] - yy[2]) * (xx[1] - xx[2]));
>    ooa = 1.0 / ooa;
> 
>-   /* setup for 3,5, or 7 sequential reg writes based on vertex format */
>-   switch (vertsize) {
>-   case 6:
>-      LE32_OUT( &vb[vbidx++], (4 << 16) | ADRINDEX(MACH64_VERTEX_1_W) );
>-      break;
>-   case 4:
>-      LE32_OUT( &vb[vbidx++], (2 << 16) | ADRINDEX(MACH64_VERTEX_1_Z) );
>-      break;
>-   default: /* vertsize >= 8 */
>-      LE32_OUT( &vb[vbidx++], (6 << 16) | ADRINDEX(MACH64_VERTEX_1_S) );
>-      break;
>-   }
>-   if (vertsize > 6) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[6] ); /* MACH64_VERTEX_1_S */
>-      LE32_OUT( &vb[vbidx++], v0->ui[7] ); /* MACH64_VERTEX_1_T */
>-   }
>-   if (vertsize > 4) {
>-      LE32_OUT( &vb[vbidx++], v0->ui[3] ); /* MACH64_VERTEX_1_W */
>-      LE32_OUT( &vb[vbidx++], v0->ui[5] ); /* MACH64_VERTEX_1_SPEC_ARGB */
>-   }
>-   LE32_OUT( &vb[vbidx++], ((GLint)(v0->v.z) << 15) );         /* MACH64_VERTEX_1_Z */
>-   vb[vbidx++] = v0->ui[coloridx];                             /* MACH64_VERTEX_1_ARGB */
>-   LE32_OUT( &vb[vbidx++], (xx[0] << 16) | (yy[0] & 0xffff) ); /* MACH64_VERTEX_1_X_Y */
>-
>-   LE32_OUT( &vb[vbidx++], ADRINDEX(MACH64_ONE_OVER_AREA_UC) );
>-   LE32_OUT( &vb[vbidx++], *(GLuint *)&ooa );
>+   COPY_VERTEX_OOA( v0, 1 );
>+   LE32_OUT( vb++, *(GLuint *)&ooa );
> 
>-   assert(vbsiz == vbidx);
>+   assert( vb == vbchk );
> #endif
> }
> 
>@@ -1336,17 +1011,19 @@
> #define VERT_SAVE_RGBA( idx )    color[idx] = v[idx]->ui[coloroffset]
> #define VERT_RESTORE_RGBA( idx ) v[idx]->ui[coloroffset] = color[idx]
> 
>-#define VERT_SET_SPEC( v, c )    if (havespec) MACH64_SPEC( v->ub4[5], c )
>-#define VERT_COPY_SPEC( v0, v1 ) if (havespec) COPY_3V(v0->ub4[5], v1->ub4[5])
>-#define VERT_SAVE_SPEC( idx )    if (havespec) spec[idx] = v[idx]->ui[5]
>-#define VERT_RESTORE_SPEC( idx ) if (havespec) v[idx]->ui[5] = spec[idx]
>+#define VERT_SET_SPEC( v, c )    if (havespec) MACH64_SPEC( v->ub4[specoffset], c )
>+#define VERT_COPY_SPEC( v0, v1 ) if (havespec) COPY_3V(v0->ub4[specoffset], v1->ub4[specoffset])
>+#define VERT_SAVE_SPEC( idx )    if (havespec) spec[idx] = v[idx]->ui[specoffset]
>+#define VERT_RESTORE_SPEC( idx ) if (havespec) v[idx]->ui[specoffset] = spec[idx]
> 
> #define LOCAL_VARS(n)						\
>    mach64ContextPtr mmesa = MACH64_CONTEXT(ctx);		\
>    GLuint color[n], spec[n];					\
>-   GLuint coloroffset = (mmesa->vertex_size == 4 ? 3 : 4);	\
>-   GLboolean havespec = (mmesa->vertex_size == 4 ? 0 : 1);	\
>-   (void) color; (void) spec; (void) coloroffset; (void) havespec;
>+   GLuint coloroffset = mmesa->coloroffset;			\
>+   GLuint specoffset = mmesa->specoffset;			\
>+   GLboolean havespec = (mmesa->specoffset != 0);		\
>+   (void) color; (void) spec; (void) specoffset;		\
>+   (void) coloroffset; (void) havespec;
> 
> #endif
> 
>@@ -1472,9 +1149,15 @@
> {
>    GLcontext *ctx = mmesa->glCtx;
>    SWvertex v[3];
>+#if MACH64_NATIVE_VTXFMT
>    mach64_translate_vertex( ctx, v0, &v[0] );
>    mach64_translate_vertex( ctx, v1, &v[1] );
>    mach64_translate_vertex( ctx, v2, &v[2] );
>+#else
>+   _swsetup_Translate( ctx, v0, &v[0] );
>+   _swsetup_Translate( ctx, v1, &v[1] );
>+   _swsetup_Translate( ctx, v2, &v[2] );
>+#endif
>    _swrast_Triangle( ctx, &v[0], &v[1], &v[2] );
> }
> 
>@@ -1486,8 +1169,13 @@
> {
>    GLcontext *ctx = mmesa->glCtx;
>    SWvertex v[2];
>+#if MACH64_NATIVE_VTXFMT
>    mach64_translate_vertex( ctx, v0, &v[0] );
>    mach64_translate_vertex( ctx, v1, &v[1] );
>+#else
>+   _swsetup_Translate( ctx, v0, &v[0] );
>+   _swsetup_Translate( ctx, v1, &v[1] );
>+#endif
>    _swrast_Line( ctx, &v[0], &v[1] );
> }
> 
>@@ -1498,7 +1186,11 @@
> {
>    GLcontext *ctx = mmesa->glCtx;
>    SWvertex v[1];
>+#if MACH64_NATIVE_VTXFMT
>    mach64_translate_vertex( ctx, v0, &v[0] );
>+#else
>+   _swsetup_Translate( ctx, v0, &v[0] );
>+#endif
>    _swrast_Point( ctx, &v[0] );
> }
> 
>@@ -1577,6 +1269,15 @@
> }
> 
> #if MACH64_NATIVE_VTXFMT
>+/*
>+ * Optimized version of mach64FastRenderClippedPoly(), it submits (n) vertices
>+ * instead of (3 * n). Does not seem to improve performance over the simple one.
>+ *
>+ * FIXME:
>+ * Further optimization is possible by consolidating the mach64AllocDmaLow()
>+ * calls. However, doing so produces irrelevant colors/textures for the 
>+ * triangles of the polygon.
>+ */
> static void mach64FastRenderClippedPoly( GLcontext *ctx, const GLuint *elts,
> 					 GLuint n )
> {
>@@ -1587,7 +1288,7 @@
>    GLuint xy;
>    const GLuint xyoffset = 9;
>    GLint xx[3], yy[3]; /* 2 fractional bits for hardware */
>-   unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * n + (n-2);
>+   unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * 3 + 1;
>    CARD32 *vb, *vbchk;
>    GLubyte *mach64verts = (GLubyte *)mmesa->verts;
>    mach64VertexPtr v0, v1, v2;
>@@ -1631,42 +1332,38 @@
>    COPY_VERTEX_OOA( vb, vertsize, v2, 3 );
>    LE32_OUT( vb++, *(CARD32 *)&ooa );
> 
>-   i = 3;
>-   while (1) {
>-      if (i >= n)
>-	 break;
>-      v0 = (mach64VertexPtr)VERT(elts[i]);
>-      i++;
>+   assert( vb == vbchk );
> 
>-      xy = LE32_IN( &v0->ui[xyoffset] );
>-      xx[0] = (GLshort)( xy >> 16 );
>-      yy[0] = (GLshort)( xy & 0xffff );
>-	      
>-      a = (xx[0] - xx[2]) * (yy[1] - yy[2]) -
>-	  (yy[0] - yy[2]) * (xx[1] - xx[2]);
>-      ooa = 16.0 / a;
>-   
>-      COPY_VERTEX_OOA( vb, vertsize, v0, 1 );
>-      LE32_OUT( vb++, *(CARD32 *)&ooa );
>+   /* draw triangles with vertices elts[0], elts[i-1], elts[i] */
>+   for (i = 3 ; i < n ; i++) {
>+      unsigned vbsiz = (vertsize + (vertsize > 7 ? 2 : 1)) * 1 + 1;
>+      mach64VertexPtr vk;
>+      int k;
>+   
>+      /* odd elements use v0, even elements use v1 */
>+      k = 1 - (i & 0x1);
>+   
>+      vk = (mach64VertexPtr)VERT(elts[i]);
>+   
>+      xy = LE32_IN( &vk->ui[xyoffset] );
>+      xx[k] = (GLshort)( xy >> 16 );
>+      yy[k] = (GLshort)( xy & 0xffff );
>       
>-      if (i >= n)
>-	 break;
>-      v1 = (mach64VertexPtr)VERT(elts[i]);
>-      i++;
>-
>-      xy = LE32_IN( &v1->ui[xyoffset] );
>-      xx[1] = (GLshort)( xy >> 16 );
>-      yy[1] = (GLshort)( xy & 0xffff );
>-	      
>       a = (xx[0] - xx[2]) * (yy[1] - yy[2]) -
> 	  (yy[0] - yy[2]) * (xx[1] - xx[2]);
>       ooa = 16.0 / a;
>+      
>+      vb = (CARD32 *)mach64AllocDmaLow( mmesa, vbsiz * sizeof(CARD32) );
>+      vbchk = vb + vbsiz;
>    
>-      COPY_VERTEX_OOA( vb, vertsize, v1, 2 );
>+      if (k == 0)
>+	 COPY_VERTEX_OOA( vb, vertsize, vk, 1 );
>+      else 
>+	 COPY_VERTEX_OOA( vb, vertsize, vk, 2 );
>       LE32_OUT( vb++, *(CARD32 *)&ooa );
>+   
>+      assert( vb == vbchk );
>    }
>-
>-   assert( vb == vbchk );
> }
> #else
> static void mach64FastRenderClippedPoly( GLcontext *ctx, const GLuint *elts,
>@@ -1740,13 +1437,13 @@
>       TNLcontext *tnl = TNL_CONTEXT(ctx);
>       tnl->Driver.Render.Points = rast_tab[index].points;
>       tnl->Driver.Render.Line = rast_tab[index].line;
>+      tnl->Driver.Render.ClippedLine = rast_tab[index].line;
>       tnl->Driver.Render.Triangle = rast_tab[index].triangle;
>       tnl->Driver.Render.Quad = rast_tab[index].quad;
> 
>       if (index == 0) {
> 	 tnl->Driver.Render.PrimTabVerts = mach64_render_tab_verts;
> 	 tnl->Driver.Render.PrimTabElts = mach64_render_tab_elts;
>-	 tnl->Driver.Render.ClippedLine = rast_tab[index].line;
> 	 tnl->Driver.Render.ClippedPolygon = mach64FastRenderClippedPoly;
>       } else {
> 	 tnl->Driver.Render.PrimTabVerts = _tnl_render_tab_verts;
>@@ -1771,8 +1468,10 @@
>       mach64DDUpdateHWState( ctx );
> 
>    if (!mmesa->Fallback && mmesa->NewGLState) {
>+#if MACH64_NATIVE_VTXFMT
>       if (mmesa->NewGLState & _MACH64_NEW_VERTEX_STATE)
> 	 mach64ChooseVertexState( ctx );
>+#endif
> 
>       if (mmesa->NewGLState & _MACH64_NEW_RENDER_STATE)
> 	 mach64ChooseRenderState( ctx );
>@@ -1819,6 +1518,7 @@
> }
> 
> 
>+#if MACH64_NATIVE_VTXFMT
> static void mach64RenderStart( GLcontext *ctx )
> {
>    /* Check for projective texturing.  Make sure all texcoord
>@@ -1826,6 +1526,152 @@
>     */
>    mach64CheckTexSizes( ctx );
> }
>+#else
>+#define EMIT_ATTR( ATTR, STYLE, SIZE )					\
>+do {									\
>+   mmesa->vertex_attrs[mmesa->vertex_attr_count].attrib = (ATTR);	\
>+   mmesa->vertex_attrs[mmesa->vertex_attr_count].format = (STYLE);	\
>+   mmesa->vertex_attr_count++;						\
>+   offset += (SIZE);							\
>+} while (0)
>+
>+#define EMIT_PAD( SIZE )						\
>+do {									\
>+   mmesa->vertex_attrs[mmesa->vertex_attr_count].attrib = 0;		\
>+   mmesa->vertex_attrs[mmesa->vertex_attr_count].format = EMIT_PAD;	\
>+   mmesa->vertex_attrs[mmesa->vertex_attr_count].offset = (SIZE);	\
>+   mmesa->vertex_attr_count++;						\
>+   offset += (SIZE);							\
>+} while (0)
>+
>+#define TINY_VERTEX_FORMAT      1
>+#define NOTEX_VERTEX_FORMAT     2
>+#define TEX0_VERTEX_FORMAT      3
>+#define TEX1_VERTEX_FORMAT      4
>+
>+static void mach64RenderStart( GLcontext *ctx )
>+{
>+   mach64ContextPtr mmesa = MACH64_CONTEXT(ctx);
>+   TNLcontext *tnl = TNL_CONTEXT(ctx);
>+   struct vertex_buffer *VB = &tnl->vb;
>+   GLuint index = tnl->render_inputs;
>+   GLuint vc_frmt = 0;
>+   GLuint vc_size = 0;
>+   GLboolean fallback_projtex = GL_FALSE;
>+   GLuint offset = 0;
>+
>+   /* Important: */
>+   VB->AttribPtr[VERT_ATTRIB_POS] = VB->NdcPtr;
>+   mmesa->vertex_attr_count = 0;
>+   mmesa->specoffset = 0;
>+
>+   if ( index & _TNL_BIT_TEX1 ) {
>+      vc_frmt = TEX1_VERTEX_FORMAT;
>+      vc_size = 10;
>+   } else if ( index & _TNL_BIT_TEX0 ) {
>+      vc_frmt = TEX0_VERTEX_FORMAT;
>+      vc_size = 7;
>+   } else if ( index & (_TNL_BIT_COLOR1|_TNL_BIT_FOG ) ) {
>+      vc_frmt = NOTEX_VERTEX_FORMAT;
>+      vc_size = 4;
>+   } else {
>+      vc_frmt = TINY_VERTEX_FORMAT;
>+      vc_size = 3;
>+   }
>+   vc_size += 4;
>+
>+   /* The TNL module requires that the first attribute is _TNL_ATTRIB_POS, 
>+    * at the same time, the mach64 native vertex format has the XYZW coords 
>+    * at non-consecutive positions spread inside the vertex.
>+    *
>+    * We reserve space for the XYZW coords with EMIT_PAD's and when the vertex 
>+    * is copied to the vertex buffer for submission to the card, we use the 
>+    * _TNL_ATTRIB_POS values to fill in the pads reserved for XYZW and discard 
>+    * the first 4 bytes of the vertex.
>+    */
>+   if ( vc_frmt >= TEX0_VERTEX_FORMAT )
>+      EMIT_ATTR( _TNL_ATTRIB_POS, EMIT_4F_VIEWPORT, 16 );
>+   else {
>+      EMIT_ATTR( _TNL_ATTRIB_POS, EMIT_3F_VIEWPORT, 12 );
>+      EMIT_PAD( 4 );
>+   }
>+
>+   /* EMIT_ATTR's must be in order as they tell t_vertex.c how to
>+    * build up a hardware vertex.
>+    */
>+   if ( vc_frmt >= TEX1_VERTEX_FORMAT ) {
>+      if ( VB->TexCoordPtr[1]->size > 2 )
>+	 fallback_projtex = GL_TRUE;
>+      EMIT_ATTR( _TNL_ATTRIB_TEX1, EMIT_2F, 8 );		/* VERTEX_?_SEC_S, VERTEX_?_SEC_T */
>+      EMIT_PAD( 4 );						/* VERTEX_?_SEC_W */
>+   }
>+   if ( vc_frmt >= TEX0_VERTEX_FORMAT ) {
>+      if ( VB->TexCoordPtr[0]->size > 2 )
>+	 fallback_projtex = GL_TRUE;
>+      EMIT_ATTR( _TNL_ATTRIB_TEX0, EMIT_2F, 8 );		/* VERTEX_?_S, VERTEX_?_T */
>+      EMIT_PAD( 4 );						/* VERTEX_?_W */
>+   }
>+
>+   if ( vc_frmt >= NOTEX_VERTEX_FORMAT) {
>+      mmesa->specoffset = offset >> 2;
>+#if MESA_LITTLE_ENDIAN
>+      if ( index & _TNL_BIT_COLOR1) {
>+	 EMIT_ATTR( _TNL_ATTRIB_COLOR1, EMIT_3UB_3F_BGR, 3 );
>+      } else 
>+	 EMIT_PAD( 3 );
>+
>+      if (index & _TNL_BIT_FOG)
>+	 EMIT_ATTR( _TNL_ATTRIB_FOG, EMIT_1UB_1F, 1 );
>+      else
>+	 EMIT_PAD( 1 );
>+#else
>+      if (index & _TNL_BIT_FOG)
>+	 EMIT_ATTR( _TNL_ATTRIB_FOG, EMIT_1UB_1F, 1 );
>+      else
>+	 EMIT_PAD( 1 );
>+
>+      if ( index & _TNL_BIT_COLOR1) {
>+	 EMIT_ATTR( _TNL_ATTRIB_COLOR1, EMIT_3UB_3F_RGB, 3 );
>+      } else 
>+	 EMIT_PAD( 3 );
>+#endif
>+   }
>+
>+   EMIT_PAD( 4 );						/* VERTEX_?_Z */
>+
>+   mmesa->coloroffset = offset >> 2;
>+#if MESA_LITTLE_ENDIAN 
>+   EMIT_ATTR( _TNL_ATTRIB_COLOR0, EMIT_4UB_4F_BGRA, 4 );
>+#else
>+   EMIT_ATTR( _TNL_ATTRIB_COLOR0, EMIT_4UB_4F_ARGB, 4 );
>+#endif
>+
>+   EMIT_PAD( 4 );						/* VERTEX_?_X_Y */
>+
>+   /* projective textures are not supported by the hardware */
>+   FALLBACK( mmesa, MACH64_FALLBACK_PROJTEX, fallback_projtex );
>+
>+   /* Only need to change the vertex emit code if there has been a
>+    * statechange to a TNL index.
>+    */
>+   if ( index != mmesa->tnl_state ) {
>+      int vertex_size;
>+      FLUSH_BATCH( mmesa );
>+      mmesa->dirty |= MACH64_UPLOAD_CONTEXT;
>+
>+      vertex_size = 
>+	 _tnl_install_attrs( ctx, 
>+			     mmesa->vertex_attrs, 
>+			     mmesa->vertex_attr_count,
>+			     mmesa->hw_viewport, 0 );
>+      vertex_size >>= 2;
>+      assert(vertex_size == vc_size);
>+
>+      mmesa->vertex_format = vc_frmt;
>+      mmesa->vertex_size = vc_size;
>+   }
>+}
>+#endif /* MACH64_NATIVE_VTXFMT */
> 
> static void mach64RenderFinish( GLcontext *ctx )
> {
>@@ -1848,6 +1694,7 @@
>    "GL_SEPARATE_SPECULAR_COLOR",
>    "glBlendEquation (mode != ADD)",
>    "glBlendFunc",
>+   "Projective texture",
>    "Rasterization disable",
> };
> 
>@@ -1887,9 +1734,25 @@
> 	 tnl->Driver.Render.Start = mach64RenderStart;
> 	 tnl->Driver.Render.PrimitiveNotify = mach64RenderPrimitive;
> 	 tnl->Driver.Render.Finish = mach64RenderFinish;
>+
>+#if MACH64_NATIVE_VTXFMT
> 	 tnl->Driver.Render.BuildVertices = mach64BuildVertices;
> 	 mmesa->NewGLState |= (_MACH64_NEW_RENDER_STATE|
> 			       _MACH64_NEW_VERTEX_STATE);
>+#else
>+	 tnl->Driver.Render.BuildVertices = _tnl_build_vertices;
>+	 tnl->Driver.Render.CopyPV = _tnl_copy_pv;
>+	 tnl->Driver.Render.Interp = _tnl_interp;
>+
>+	 _tnl_invalidate_vertex_state( ctx, ~0 );
>+	 _tnl_invalidate_vertices( ctx, ~0 );
>+	 _tnl_install_attrs( ctx, 
>+			     mmesa->vertex_attrs, 
>+			     mmesa->vertex_attr_count,
>+			     mmesa->hw_viewport, 0 ); 
>+
>+	 mmesa->NewGLState |= _MACH64_NEW_RENDER_STATE;
>+#endif
> 	 if (MACH64_DEBUG & DEBUG_VERBOSE_FALLBACK) {
> 	    fprintf(stderr, "Mach64 end rasterization fallback: 0x%x %s\n",
> 		    bit, getFallbackString(bit));
>@@ -1904,6 +1767,7 @@
> 
> void mach64InitTriFuncs( GLcontext *ctx )
> {
>+   mach64ContextPtr mmesa = MACH64_CONTEXT(ctx);
>    TNLcontext *tnl = TNL_CONTEXT(ctx);
>    static int firsttime = 1;
> 
>@@ -1917,5 +1781,18 @@
>    tnl->Driver.Render.Finish = mach64RenderFinish;
>    tnl->Driver.Render.PrimitiveNotify = mach64RenderPrimitive;
>    tnl->Driver.Render.ResetLineStipple = _swrast_ResetLineStipple;
>+#if MACH64_NATIVE_VTXFMT
>    tnl->Driver.Render.BuildVertices = mach64BuildVertices;
>+#else
>+   tnl->Driver.Render.BuildVertices = _tnl_build_vertices;
>+   tnl->Driver.Render.CopyPV = _tnl_copy_pv;
>+   tnl->Driver.Render.Interp = _tnl_interp;
>+
>+   _tnl_init_vertices( ctx, ctx->Const.MaxArrayLockSize + 12, 
>+		       (6 + 2 * ctx->Const.MaxTextureUnits) * sizeof(GLfloat) );
>+   mmesa->verts = (char *)tnl->clipspace.vertex_buf;
>+   mmesa->tnl_state = -1;
>+
>+   mmesa->NewGLState |= _MACH64_NEW_RENDER_STATE;
>+#endif
> }
>diff -au -x 'depend*' -x '*o' -x '*swp' mach64/mach64_vb.c mach64-sap-1/mach64_vb.c
>--- mach64/mach64_vb.c	2004-07-01 16:14:05.000000000 +0300
>+++ mach64-sap-1/mach64_vb.c	2006-04-05 19:35:48.000000000 +0300
>@@ -45,6 +45,7 @@
> #include "mach64_state.h"
> 
> 
>+#if MACH64_NATIVE_VTXFMT
> #define MACH64_TEX1_BIT       0x1
> #define MACH64_TEX0_BIT       0x2
> #define MACH64_RGBA_BIT       0x4
>@@ -107,20 +108,10 @@
> 		       (GLfloat)mmesa->drawY  + SUBPIXEL_Y);	\
>    const GLfloat sz = 1.0 / mmesa->depth_scale
> 
>-#if MACH64_NATIVE_VTXFMT
>-   
> #define UNVIEWPORT_X(x)    ((GLfloat)(x) / 4.0)  +  dx
> #define UNVIEWPORT_Y(y)  - ((GLfloat)(y) / 4.0)  +  dy
> #define UNVIEWPORT_Z(z)    (GLfloat)((z) >> 15)  *  sz
> 
>-#else
>-
>-#define UNVIEWPORT_X(x)    x  +  dx;
>-#define UNVIEWPORT_Y(y)  - y  +  dy;
>-#define UNVIEWPORT_Z(z)    z  *  sz;
>-
>-#endif
>-
> #define PTEX_FALLBACK() FALLBACK(MACH64_CONTEXT(ctx), MACH64_FALLBACK_TEXTURE, 1)
> 
> #define IMPORT_FLOAT_COLORS mach64_import_float_colors
>@@ -133,25 +124,14 @@
>  *         Generate  pv-copying and translation functions              *
>  ***********************************************************************/
> 
>-#if MACH64_NATIVE_VTXFMT
>-
> #define TAG(x) mach64_##x
> #include "mach64_native_vb.c"
> 
>-#else
>-
>-#define TAG(x) mach64_##x
>-#include "tnl_dd/t_dd_vb.c"
>-
>-#endif
>-
> /***********************************************************************
>  *             Generate vertex emit and interp functions               *
>  ***********************************************************************/
> 
> 
>-#if MACH64_NATIVE_VTXFMT
>-
> #define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT)
> #define TAG(x) x##_wg
> #include "mach64_native_vbtmp.h"
>@@ -292,150 +272,6 @@
> #define TAG(x) x##_gfst0t1
> #include "mach64_native_vbtmp.h"
> 
>-#else
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT)
>-#define TAG(x) x##_wg
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_SPEC_BIT)
>-#define TAG(x) x##_wgs
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_wgt0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_wgt0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_TEX0_BIT|MACH64_PTEX_BIT)
>-#define TAG(x) x##_wgpt0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_wgst0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT|\
>-             MACH64_TEX1_BIT)
>-#define TAG(x) x##_wgst0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT|\
>-             MACH64_PTEX_BIT)
>-#define TAG(x) x##_wgspt0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT)
>-#define TAG(x) x##_wgf
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT)
>-#define TAG(x) x##_wgfs
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_wgft0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_TEX0_BIT|\
>-             MACH64_TEX1_BIT)
>-#define TAG(x) x##_wgft0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_TEX0_BIT|\
>-             MACH64_PTEX_BIT)
>-#define TAG(x) x##_wgfpt0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT|\
>-             MACH64_TEX0_BIT)
>-#define TAG(x) x##_wgfst0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT|\
>-             MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_wgfst0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_XYZW_BIT|MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT|\
>-             MACH64_TEX0_BIT|MACH64_PTEX_BIT)
>-#define TAG(x) x##_wgfspt0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_TEX0_BIT)
>-#define TAG(x) x##_t0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_t0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_FOG_BIT)
>-#define TAG(x) x##_f
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_FOG_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_ft0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_FOG_BIT|MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_ft0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT)
>-#define TAG(x) x##_g
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_SPEC_BIT)
>-#define TAG(x) x##_gs
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_gt0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_gt0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_gst0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_gst0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_FOG_BIT)
>-#define TAG(x) x##_gf
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT)
>-#define TAG(x) x##_gfs
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_gft0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_TEX0_BIT|MACH64_TEX1_BIT)
>-#define TAG(x) x##_gft0t1
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT)
>-#define TAG(x) x##_gfst0
>-#include "mach64_vbtmp.h"
>-
>-#define IND (MACH64_RGBA_BIT|MACH64_FOG_BIT|MACH64_SPEC_BIT|MACH64_TEX0_BIT|\
>-             MACH64_TEX1_BIT)
>-#define TAG(x) x##_gfst0t1
>-#include "mach64_vbtmp.h"
>-
>-#endif
>-
> static void init_setup_tab( void )
> {
>    init_wg();
>@@ -640,3 +476,4 @@
>       mmesa->verts = 0;
>    }
> }
>+#endif
>diff -au -x 'depend*' -x '*o' -x '*swp' mach64/mach64_vb.h mach64-sap-1/mach64_vb.h
>--- mach64/mach64_vb.h	2006-04-07 00:29:37.000000000 +0300
>+++ mach64-sap-1/mach64_vb.h	2006-04-05 01:13:58.000000000 +0300
>@@ -36,9 +36,6 @@
> #include "swrast/swrast.h"
> #include "mach64_context.h"
> 
>-/* premultiply texture coordinates by homogenous coordinate */
>-#define MACH64_PREMULT_TEXCOORDS
>-
> #define _MACH64_NEW_VERTEX_STATE (_DD_NEW_SEPARATE_SPECULAR |          \
>                                _DD_NEW_TRI_LIGHT_TWOSIDE |             \
>                                _DD_NEW_TRI_UNFILLED |                  \
>Only in mach64: mach64_vbtmp.h
>Common subdirectories: mach64/server and mach64-sap-1/server

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Attachments on bug 6412: 5096 | 5097 | 5098 | 5100 | 5106 | 5109 | 5126 | 5155 | 5164 | 5198 | 5206 | 5209 | 5282 | 5723

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