mod_skeletal_animatevertices_generic.c File Reference

#include "mod_skeletal_animatevertices_generic.h"

Include dependency graph for mod_skeletal_animatevertices_generic.c:

Go to the source code of this file.

Macros
#define	LOAD_MATRIX3()
#define	LOAD_MATRIX4()
#define	LOAD_MATRIX_SCALAR()
#define	TRANSFORM_POSITION(in, out)
#define	TRANSFORM_POSITION_SCALAR(in, out)
#define	TRANSFORM_VECTOR(in, out)
#define	TRANSFORM_VECTOR_SCALAR(in, out)

Functions
void	Mod_Skeletal_AnimateVertices_Generic (const model_t *RESTRICT model, const frameblend_t *RESTRICT frameblend, const skeleton_t *skeleton, float *RESTRICT vertex3f, float *RESTRICT normal3f, float *RESTRICT svector3f, float *RESTRICT tvector3f)

Macro Definition Documentation

LOAD_MATRIX3

#define LOAD_MATRIX3

(

)

Value:

    LOAD_MATRIX_SCALAR()

Referenced by Mod_Skeletal_AnimateVertices_Generic().

LOAD_MATRIX4

#define LOAD_MATRIX4

(

)

Value:

    LOAD_MATRIX_SCALAR()

Referenced by Mod_Skeletal_AnimateVertices_Generic().

LOAD_MATRIX_SCALAR

#define LOAD_MATRIX_SCALAR

(

)

Value:

const float * RESTRICT m = boneposerelative + 12 * (unsigned int)*b

TRANSFORM_POSITION

#define TRANSFORM_POSITION	(		in,
			out )

Value:

    TRANSFORM_POSITION_SCALAR(in, out)

Referenced by Mod_Skeletal_AnimateVertices_Generic().

TRANSFORM_POSITION_SCALAR

#define TRANSFORM_POSITION_SCALAR	(		in,
			out )

Value:

    (out)[0] = ((in)[0] * m[0] + (in)[1] * m[1] + (in)[2] * m[ 2] + m[3]); \
    (out)[1] = ((in)[0] * m[4] + (in)[1] * m[5] + (in)[2] * m[ 6] + m[7]); \
    (out)[2] = ((in)[0] * m[8] + (in)[1] * m[9] + (in)[2] * m[10] + m[11]);

TRANSFORM_VECTOR

#define TRANSFORM_VECTOR	(		in,
			out )

Value:

    TRANSFORM_VECTOR_SCALAR(in, out)

Referenced by Mod_Skeletal_AnimateVertices_Generic().

TRANSFORM_VECTOR_SCALAR

#define TRANSFORM_VECTOR_SCALAR	(		in,
			out )

Value:

    (out)[0] = ((in)[0] * m[0] + (in)[1] * m[1] + (in)[2] * m[ 2]); \
    (out)[1] = ((in)[0] * m[4] + (in)[1] * m[5] + (in)[2] * m[ 6]); \
    (out)[2] = ((in)[0] * m[8] + (in)[1] * m[9] + (in)[2] * m[10]);

Function Documentation

Mod_Skeletal_AnimateVertices_Generic()

void Mod_Skeletal_AnimateVertices_Generic	(	const model_t *RESTRICT	model,
		const frameblend_t *RESTRICT	frameblend,
		const skeleton_t *	skeleton,
		float *RESTRICT	vertex3f,
		float *RESTRICT	normal3f,
		float *RESTRICT	svector3f,
		float *RESTRICT	tvector3f )

Definition at line 3 of file mod_skeletal_animatevertices_generic.c.

{
    // vertex weighted skeletal
    int i, k;
    float *bonepose;
    float *boneposerelative;
    const blendweights_t * RESTRICT weights;
 
    //unsigned long long ts = rdtsc();
    bonepose = (float *) Mod_Skeletal_AnimateVertices_AllocBuffers(sizeof(float[12]) * (model->num_bones*2 + model->surfmesh.num_blends));
    boneposerelative = bonepose + model->num_bones * 12;
 
    Mod_Skeletal_BuildTransforms(model, frameblend, skeleton, bonepose, boneposerelative);
 
    // generate matrices for all blend combinations
    weights = model->surfmesh.data_blendweights;
    for (i = 0;i < model->surfmesh.num_blends;i++, weights++)
    {
        float * RESTRICT b = boneposerelative + 12 * (model->num_bones + i);
        const float * RESTRICT m = boneposerelative + 12 * (unsigned int)weights->index[0];
        float f = weights->influence[0] * (1.0f / 255.0f);
        b[ 0] = f*m[ 0]; b[ 1] = f*m[ 1]; b[ 2] = f*m[ 2]; b[ 3] = f*m[ 3];
        b[ 4] = f*m[ 4]; b[ 5] = f*m[ 5]; b[ 6] = f*m[ 6]; b[ 7] = f*m[ 7];
        b[ 8] = f*m[ 8]; b[ 9] = f*m[ 9]; b[10] = f*m[10]; b[11] = f*m[11];
        for (k = 1;k < 4 && weights->influence[k];k++)
        {
            m = boneposerelative + 12 * (unsigned int)weights->index[k];
            f = weights->influence[k] * (1.0f / 255.0f);
            b[ 0] += f*m[ 0]; b[ 1] += f*m[ 1]; b[ 2] += f*m[ 2]; b[ 3] += f*m[ 3];
            b[ 4] += f*m[ 4]; b[ 5] += f*m[ 5]; b[ 6] += f*m[ 6]; b[ 7] += f*m[ 7];
            b[ 8] += f*m[ 8]; b[ 9] += f*m[ 9]; b[10] += f*m[10]; b[11] += f*m[11];
        }
    }
 
#define LOAD_MATRIX_SCALAR() const float * RESTRICT m = boneposerelative + 12 * (unsigned int)*b
 
#define LOAD_MATRIX3() \
    LOAD_MATRIX_SCALAR()
#define LOAD_MATRIX4() \
    LOAD_MATRIX_SCALAR()
 
#define TRANSFORM_POSITION_SCALAR(in, out) \
    (out)[0] = ((in)[0] * m[0] + (in)[1] * m[1] + (in)[2] * m[ 2] + m[3]); \
    (out)[1] = ((in)[0] * m[4] + (in)[1] * m[5] + (in)[2] * m[ 6] + m[7]); \
    (out)[2] = ((in)[0] * m[8] + (in)[1] * m[9] + (in)[2] * m[10] + m[11]);
#define TRANSFORM_VECTOR_SCALAR(in, out) \
    (out)[0] = ((in)[0] * m[0] + (in)[1] * m[1] + (in)[2] * m[ 2]); \
    (out)[1] = ((in)[0] * m[4] + (in)[1] * m[5] + (in)[2] * m[ 6]); \
    (out)[2] = ((in)[0] * m[8] + (in)[1] * m[9] + (in)[2] * m[10]);
 
#define TRANSFORM_POSITION(in, out) \
    TRANSFORM_POSITION_SCALAR(in, out)
#define TRANSFORM_VECTOR(in, out) \
    TRANSFORM_VECTOR_SCALAR(in, out)
 
    // transform vertex attributes by blended matrices
    if (vertex3f)
    {
        const float * RESTRICT v = model->surfmesh.data_vertex3f;
        const unsigned short * RESTRICT b = model->surfmesh.blends;
        // special case common combinations of attributes to avoid repeated loading of matrices
        if (normal3f)
        {
            const float * RESTRICT n = model->surfmesh.data_normal3f;
            if (svector3f && tvector3f)
            {
                const float * RESTRICT svec = model->surfmesh.data_svector3f;
                const float * RESTRICT tvec = model->surfmesh.data_tvector3f;
 
                // Note that for SSE each iteration stores one element past end, so we break one vertex short
                // and handle that with scalars in that case
                for (i = 0; i < model->surfmesh.num_vertices; i++, v += 3, n += 3, svec += 3, tvec += 3, b++,
                        vertex3f += 3, normal3f += 3, svector3f += 3, tvector3f += 3)
                {
                    LOAD_MATRIX4();
                    TRANSFORM_POSITION(v, vertex3f);
                    TRANSFORM_VECTOR(n, normal3f);
                    TRANSFORM_VECTOR(svec, svector3f);
                    TRANSFORM_VECTOR(tvec, tvector3f);
                }
 
                return;
            }
 
            for (i = 0;i < model->surfmesh.num_vertices; i++, v += 3, n += 3, b++, vertex3f += 3, normal3f += 3)
            {
                LOAD_MATRIX4();
                TRANSFORM_POSITION(v, vertex3f);
                TRANSFORM_VECTOR(n, normal3f);
            }
        }
        else
        {
            for (i = 0;i < model->surfmesh.num_vertices; i++, v += 3, b++, vertex3f += 3)
            {
                LOAD_MATRIX4();
                TRANSFORM_POSITION(v, vertex3f);
            }
        }
    }
 
    else if (normal3f)
    {
        const float * RESTRICT n = model->surfmesh.data_normal3f;
        const unsigned short * RESTRICT b = model->surfmesh.blends;
        for (i = 0; i < model->surfmesh.num_vertices; i++, n += 3, b++, normal3f += 3)
        {
            LOAD_MATRIX3();
            TRANSFORM_VECTOR(n, normal3f);
        }
    }
 
    if (svector3f)
    {
        const float * RESTRICT svec = model->surfmesh.data_svector3f;
        const unsigned short * RESTRICT b = model->surfmesh.blends;
        for (i = 0; i < model->surfmesh.num_vertices; i++, svec += 3, b++, svector3f += 3)
        {
            LOAD_MATRIX3();
            TRANSFORM_VECTOR(svec, svector3f);
        }
    }
 
    if (tvector3f)
    {
        const float * RESTRICT tvec = model->surfmesh.data_tvector3f;
        const unsigned short * RESTRICT b = model->surfmesh.blends;
        for (i = 0; i < model->surfmesh.num_vertices; i++, tvec += 3, b++, tvector3f += 3)
        {
            LOAD_MATRIX3();
            TRANSFORM_VECTOR(tvec, tvector3f);
        }
    }
}

References b, f, i, int(), LOAD_MATRIX3, LOAD_MATRIX4, Mod_Skeletal_AnimateVertices_AllocBuffers(), Mod_Skeletal_BuildTransforms(), model, n, RESTRICT, TRANSFORM_POSITION, TRANSFORM_VECTOR, and v.

Referenced by Mod_Skeletal_AnimateVertices().