Few bug fixes and we're working\!
This commit is contained in:
Scott Duensing
parent
b9557cd3a3
commit
081e669a8a
2 changed files with 167 additions and 177 deletions
342
j3d/j3d.c
342
j3d/j3d.c
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@ -476,9 +476,9 @@ void j3DrawWorld(j3WorldT *w) {
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void j3MathCrossProduct3D(j3Vector3DT *u, j3Vector3DT *v, j3Vector3DT *normal) {
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// Compute the cross product between two vectors
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normal->x = (u->y*v->z - u->z*v->y);
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normal->y = -(u->x*v->z - u->z*v->x);
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normal->z = (u->x*v->y - u->y*v->x);
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normal->x = (u->y * v->z - u->z * v->y);
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normal->y = -(u->x * v->z - u->z * v->x);
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normal->z = (u->x * v->y - u->y * v->x);
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}
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@ -578,215 +578,206 @@ void _j3ObjectUpdate(j3ObjectT *o) {
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// === ROTATION ===
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if (o->rotationDirty) {
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x = (jint16)o->rotation.x;
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y = (jint16)o->rotation.y;
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z = (jint16)o->rotation.z;
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// Rotation being dirty means we also need to update position later
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o->positionDirty = true;
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j3MathMatrix4x4Identity(final);
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x = (jint16)o->rotation.x;
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y = (jint16)o->rotation.y;
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z = (jint16)o->rotation.z;
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// What angles are we rotating on? By knowing this we can optimize some.
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if (x) axis += 4;
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if (y) axis += 2;
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if (z) axis += 1;
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j3MathMatrix4x4Identity(final);
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switch (axis) {
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case 1: // Final matrix = z
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final[0][0] = cos_table[z];
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final[0][1] = sin_table[z];
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final[1][0] = -sin_table[z];
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final[1][1] = cos_table[z];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1];
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o->verticies[i].world.z = o->verticies[i].local.z;
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}
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break;
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// What angles are we rotating on? By knowing this we can optimize some.
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if (x) axis += 4;
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if (y) axis += 2;
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if (z) axis += 1;
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case 2: // Final matrix = y
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final[0][0] = cos_table[y];
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final[0][2] = -sin_table[y];
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final[2][0] = sin_table[y];
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final[2][2] = cos_table[y];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.y;
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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switch (axis) {
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case 1: // Final matrix = z
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final[0][0] = cos_table[z];
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final[0][1] = sin_table[z];
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final[1][0] = -sin_table[z];
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final[1][1] = cos_table[z];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1];
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o->verticies[i].world.z = o->verticies[i].local.z;
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}
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break;
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case 3: // Final matrix = y * z
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final[0][0] = cos_table[y] * cos_table[z];
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final[0][1] = cos_table[y] * sin_table[z];
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final[0][2] = -sin_table[y];
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case 2: // Final matrix = y
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final[0][0] = cos_table[y];
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final[0][2] = -sin_table[y];
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final[2][0] = sin_table[y];
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final[2][2] = cos_table[y];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.y;
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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final[1][0] = -sin_table[z];
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final[1][1] = cos_table[z];
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case 3: // Final matrix = y * z
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final[0][0] = cos_table[y] * cos_table[z];
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final[0][1] = cos_table[y] * sin_table[z];
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final[0][2] = -sin_table[y];
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final[2][0] = sin_table[y] * cos_table[z];
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final[2][1] = sin_table[y] * sin_table[z];
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final[2][2] = cos_table[y];
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final[1][0] = -sin_table[z];
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final[1][1] = cos_table[z];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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final[2][0] = sin_table[y] * cos_table[z];
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final[2][1] = sin_table[y] * sin_table[z];
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final[2][2] = cos_table[y];
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case 4: // Final matrix = x
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final[1][1] = cos_table[x];
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final[1][2] = sin_table[x];
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final[2][1] = -sin_table[x];
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final[2][2] = cos_table[x];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x;
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o->verticies[i].world.y = o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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case 5: // Final matrix = x * z
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final[0][0] = cos_table[z];
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final[0][1] = sin_table[z];
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case 4: // Final matrix = x
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final[1][1] = cos_table[x];
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final[1][2] = sin_table[x];
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final[2][1] = -sin_table[x];
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final[2][2] = cos_table[x];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x;
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o->verticies[i].world.y = o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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final[1][0] = -cos_table[x] * sin_table[z];
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final[1][1] = cos_table[x] * cos_table[z];
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final[1][2] = sin_table[x];
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case 5: // Final matrix = x * z
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final[0][0] = cos_table[z];
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final[0][1] = sin_table[z];
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final[2][0] = sin_table[x] * sin_table[z];
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final[2][1] = -sin_table[x] * cos_table[z];
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final[2][2] = cos_table[x];
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final[1][0] = -cos_table[x]*sin_table[z];
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final[1][1] = cos_table[x]*cos_table[z];
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final[1][2] = sin_table[x];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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final[2][0] = sin_table[x]*sin_table[z];
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final[2][1] = -sin_table[x]*cos_table[z];
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final[2][2] = cos_table[x];
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case 6: // Final matrix = x * y
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final[0][0] = cos_table[y];
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final[0][2] = -sin_table[y];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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final[1][0] = sin_table[x] * sin_table[y];
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final[1][1] = cos_table[x];
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final[1][2] = sin_table[x] * cos_table[y];
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case 6: // Final matrix = x * y
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final[0][0] = cos_table[y];
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final[0][2] = -sin_table[y];
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final[2][0] = cos_table[x] * sin_table[y];
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final[2][1] = -sin_table[x];
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final[2][2] = cos_table[x] * cos_table[y];
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final[1][0] = sin_table[x] * sin_table[y];
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final[1][1] = cos_table[x];
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final[1][2] = sin_table[x] * cos_table[y];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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final[2][0] = cos_table[x] * sin_table[y];
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final[2][1] = -sin_table[x];
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final[2][2] = cos_table[x] * cos_table[y];
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case 7: // Final matrix = x * y * z
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j3MathMatrix4x4Identity(rotateX);
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rotateX[1][1] = cos_table[x];
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rotateX[1][2] = sin_table[x];
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rotateX[2][1] = -sin_table[x];
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rotateX[2][2] = cos_table[x];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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j3MathMatrix4x4Identity(rotateY);
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rotateY[0][0] = cos_table[y];
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rotateY[0][2] = -sin_table[y];
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rotateY[2][0] = sin_table[y];
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rotateY[2][2] = cos_table[y];
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case 7: // Final matrix = x * y * z
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j3MathMatrix4x4Identity(rotateX);
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rotateX[1][1] = cos_table[x];
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rotateX[1][2] = sin_table[x];
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rotateX[2][1] = -sin_table[x];
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rotateX[2][2] = cos_table[x];
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j3MathMatrix4x4Identity(rotateZ);
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rotateZ[0][0] = cos_table[z];
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rotateZ[0][1] = sin_table[z];
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rotateZ[1][0] = -sin_table[z];
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rotateZ[1][1] = cos_table[z];
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j3MathMatrix4x4Identity(rotateY);
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rotateY[0][0] = cos_table[y];
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rotateY[0][2] = -sin_table[y];
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rotateY[2][0] = sin_table[y];
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rotateY[2][2] = cos_table[y];
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j3MathMatrix4x4Mult(rotateX, rotateY, temp);
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j3MathMatrix4x4Mult(temp, rotateZ, final);
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j3MathMatrix4x4Identity(rotateZ);
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rotateZ[0][0] = cos_table[z];
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rotateZ[0][1] = sin_table[z];
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rotateZ[1][0] = -sin_table[z];
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rotateZ[1][1] = cos_table[z];
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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j3MathMatrix4x4Mult(rotateX, rotateZ, temp);
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j3MathMatrix4x4Mult(temp, rotateZ, final);
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].local.x * final[0][0] + o->verticies[i].local.y * final[1][0] + o->verticies[i].local.z * final[2][0];
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o->verticies[i].world.y = o->verticies[i].local.x * final[0][1] + o->verticies[i].local.y * final[1][1] + o->verticies[i].local.z * final[2][1];
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o->verticies[i].world.z = o->verticies[i].local.x * final[0][2] + o->verticies[i].local.y * final[1][2] + o->verticies[i].local.z * final[2][2];
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}
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break;
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default:
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break;
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}
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default:
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break;
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}
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// === SCALE & TRANSLATION ===
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if (o->positionDirty || o->scaleDirty) {
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].world.x * o->scale.x + o->position.x;
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o->verticies[i].world.y = o->verticies[i].world.y * o->scale.y + o->position.y;
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o->verticies[i].world.z = o->verticies[i].world.z * o->scale.z + o->position.z;
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}
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for (i=0; i<o->vertexCount; i++) {
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o->verticies[i].world.x = o->verticies[i].world.x * o->scale.x + o->position.x;
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o->verticies[i].world.y = o->verticies[i].world.y * o->scale.y + o->position.y;
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o->verticies[i].world.z = o->verticies[i].world.z * o->scale.z + o->position.z;
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}
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// === CAMERA SPACE ===
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//***TODO*** Move this when we add multiple object stuff and re-do this function
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if (_j3VarCameraLocationDirty || _j3VarCameraAngleDirty) {
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// Create the global inverse transformation matrix used to transform world coordinate to camera coordinates
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j3MathMatrix4x4Identity(translate);
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j3MathMatrix4x4Identity(rotateX);
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j3MathMatrix4x4Identity(rotateY);
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j3MathMatrix4x4Identity(rotateZ);
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// Create the global inverse transformation matrix used to transform world coordinate to camera coordinates
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j3MathMatrix4x4Identity(translate);
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j3MathMatrix4x4Identity(rotateX);
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j3MathMatrix4x4Identity(rotateY);
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j3MathMatrix4x4Identity(rotateZ);
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translate[3][0] = -_j3VarCameraLocation.x;
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translate[3][1] = -_j3VarCameraLocation.y;
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translate[3][2] = -_j3VarCameraLocation.z;
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translate[3][0] = -_j3VarCameraLocation.x;
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translate[3][1] = -_j3VarCameraLocation.y;
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translate[3][2] = -_j3VarCameraLocation.z;
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// Z matrix
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rotateX[1][1] = ( cos_table[_j3VarCameraAngle.x]);
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rotateX[1][2] = -( sin_table[_j3VarCameraAngle.x]);
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rotateX[2][1] = -(-sin_table[_j3VarCameraAngle.x]);
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rotateX[2][2] = ( cos_table[_j3VarCameraAngle.x]);
|
||||
// X matrix
|
||||
rotateX[1][1] = ( cos_table[_j3VarCameraAngle.x]);
|
||||
rotateX[1][2] = -( sin_table[_j3VarCameraAngle.x]);
|
||||
rotateX[2][1] = -(-sin_table[_j3VarCameraAngle.x]);
|
||||
rotateX[2][2] = ( cos_table[_j3VarCameraAngle.x]);
|
||||
|
||||
// Y matrix
|
||||
rotateY[0][0] = ( cos_table[_j3VarCameraAngle.y]);
|
||||
rotateY[0][2] = -(-sin_table[_j3VarCameraAngle.y]);
|
||||
rotateY[2][0] = -( sin_table[_j3VarCameraAngle.y]);
|
||||
rotateY[2][2] = ( cos_table[_j3VarCameraAngle.y]);
|
||||
// Y matrix
|
||||
rotateY[0][0] = ( cos_table[_j3VarCameraAngle.y]);
|
||||
rotateY[0][2] = -(-sin_table[_j3VarCameraAngle.y]);
|
||||
rotateY[2][0] = -( sin_table[_j3VarCameraAngle.y]);
|
||||
rotateY[2][2] = ( cos_table[_j3VarCameraAngle.y]);
|
||||
|
||||
// Z matrix
|
||||
rotateZ[0][0] = ( cos_table[_j3VarCameraAngle.z]);
|
||||
rotateZ[0][1] = -( sin_table[_j3VarCameraAngle.z]);
|
||||
rotateZ[1][0] = -(-sin_table[_j3VarCameraAngle.z]);
|
||||
rotateZ[1][1] = ( cos_table[_j3VarCameraAngle.z]);
|
||||
// Z matrix
|
||||
rotateZ[0][0] = ( cos_table[_j3VarCameraAngle.z]);
|
||||
rotateZ[0][1] = -( sin_table[_j3VarCameraAngle.z]);
|
||||
rotateZ[1][0] = -(-sin_table[_j3VarCameraAngle.z]);
|
||||
rotateZ[1][1] = ( cos_table[_j3VarCameraAngle.z]);
|
||||
|
||||
j3MathMatrix4x4Mult(translate, rotateX, result1);
|
||||
j3MathMatrix4x4Mult(result1, rotateY, result2);
|
||||
j3MathMatrix4x4Mult(result2, rotateZ, _j3VarCameraMatrix);
|
||||
j3MathMatrix4x4Mult(translate, rotateX, result1);
|
||||
j3MathMatrix4x4Mult(result1, rotateY, result2);
|
||||
j3MathMatrix4x4Mult(result2, rotateZ, _j3VarCameraMatrix);
|
||||
|
||||
_j3VarCameraLocationDirty = false;
|
||||
_j3VarCameraAngleDirty = false;
|
||||
}
|
||||
_j3VarCameraLocationDirty = false;
|
||||
_j3VarCameraAngleDirty = false;
|
||||
|
||||
if (o->positionDirty || o->rotationDirty) {
|
||||
for (i=0; i<o->vertexCount; i++) {
|
||||
o->verticies[i].camera.x =
|
||||
o->verticies[i].world.x * _j3VarCameraMatrix[0][0] +
|
||||
o->verticies[i].world.y * _j3VarCameraMatrix[1][0] +
|
||||
o->verticies[i].world.z * _j3VarCameraMatrix[2][0] + _j3VarCameraMatrix[3][0];
|
||||
o->verticies[i].camera.y =
|
||||
o->verticies[i].world.x * _j3VarCameraMatrix[0][1] +
|
||||
o->verticies[i].world.y * _j3VarCameraMatrix[1][1] +
|
||||
o->verticies[i].world.z * _j3VarCameraMatrix[2][1] + _j3VarCameraMatrix[3][1];
|
||||
o->verticies[i].camera.z =
|
||||
o->verticies[i].world.x * _j3VarCameraMatrix[0][2] +
|
||||
o->verticies[i].world.y * _j3VarCameraMatrix[1][2] +
|
||||
o->verticies[i].world.z * _j3VarCameraMatrix[2][2] + _j3VarCameraMatrix[3][2];
|
||||
}
|
||||
for (i=0; i<o->vertexCount; i++) {
|
||||
o->verticies[i].camera.x =
|
||||
o->verticies[i].world.x * _j3VarCameraMatrix[0][0] +
|
||||
o->verticies[i].world.y * _j3VarCameraMatrix[1][0] +
|
||||
o->verticies[i].world.z * _j3VarCameraMatrix[2][0] +
|
||||
_j3VarCameraMatrix[3][0];
|
||||
o->verticies[i].camera.y =
|
||||
o->verticies[i].world.x * _j3VarCameraMatrix[0][1] +
|
||||
o->verticies[i].world.y * _j3VarCameraMatrix[1][1] +
|
||||
o->verticies[i].world.z * _j3VarCameraMatrix[2][1] +
|
||||
_j3VarCameraMatrix[3][1];
|
||||
o->verticies[i].camera.z =
|
||||
o->verticies[i].world.x * _j3VarCameraMatrix[0][2] +
|
||||
o->verticies[i].world.y * _j3VarCameraMatrix[1][2] +
|
||||
o->verticies[i].world.z * _j3VarCameraMatrix[2][2] +
|
||||
_j3VarCameraMatrix[3][2];
|
||||
}
|
||||
|
||||
// === REMOVE BACKFACES & LIGHT ===
|
||||
|
|
@ -889,7 +880,8 @@ void _j3ObjectUpdate(j3ObjectT *o) {
|
|||
}
|
||||
|
||||
// Did this triangle survive culling?
|
||||
if (o->triangles[i].visible) {
|
||||
//***TODO*** Our visible flag is backwards for some reason. Not sure why yet.
|
||||
if (!o->triangles[i].visible) {
|
||||
// Find average z depth in camera space
|
||||
vertex0 = o->triangles[i].index[0];
|
||||
vertex1 = o->triangles[i].index[1];
|
||||
|
|
@ -933,8 +925,6 @@ void _j3ObjectUpdateNormalLength(j3ObjectT *object, juint16 triangle) {
|
|||
// 15, this will change the shading calculation of 15*dp/normal into
|
||||
// dp*normal_length, removing one division
|
||||
object->triangles[triangle].normalLength = (float)15.0 / j3MathVectorMagnatude3D((j3Vector3DT *)&normal);
|
||||
|
||||
|
||||
}
|
||||
|
||||
|
||||
|
|
|
|||
|
|
@ -74,7 +74,7 @@ int main(void) {
|
|||
|
||||
printAt(font, 1, 1, "Loading object... ");
|
||||
jlDisplayPresent();
|
||||
r = j3WorldLoad(world, "pyramid");
|
||||
r = j3WorldLoad(world, "cube");
|
||||
if (!r) {
|
||||
printAt(font, 1, 1, "Object loading: Failed.");
|
||||
jlDisplayPresent();
|
||||
|
|
|
|||
Loading…
Add table
Reference in a new issue