d3drm/tests: Fix the Visual C++ double to float conversion warnings.

dlls/d3drm/tests/vector.c

@@ -23,8 +23,8 @@
 
 #include "wine/test.h"
 
-#define PI (4*atan(1.0))
-#define admit_error 0.000001
+#define PI (4.0f*atanf(1.0f))
+#define admit_error 0.000001f
 
 #define expect_mat( expectedmat, gotmat)\
 { \
@@ -132,69 +132,69 @@ static void VectorTest(void)
     D3DVALUE mod,par,theta;
     D3DVECTOR e,r,u,v,w,axis,casnul,norm,ray;
 
-    U1(u).x=2.0;U2(u).y=2.0;U3(u).z=1.0;
-    U1(v).x=4.0;U2(v).y=4.0;U3(v).z=0.0;
+    U1(u).x=2.0f; U2(u).y=2.0f; U3(u).z=1.0f;
+    U1(v).x=4.0f; U2(v).y=4.0f; U3(v).z=0.0f;
 
 /*______________________VectorAdd_________________________________*/
     pD3DRMVectorAdd(&r,&u,&v);
-    U1(e).x=6.0;U2(e).y=6.0;U3(e).z=1.0;
+    U1(e).x=6.0f; U2(e).y=6.0f; U3(e).z=1.0f;
     expect_vec(e,r);
 
 /*_______________________VectorSubtract__________________________*/
     pD3DRMVectorSubtract(&r,&u,&v);
-    U1(e).x=-2.0;U2(e).y=-2.0;U3(e).z=1.0;
+    U1(e).x=-2.0f; U2(e).y=-2.0f; U3(e).z=1.0f;
     expect_vec(e,r);
 
 /*_______________________VectorCrossProduct_______________________*/
     pD3DRMVectorCrossProduct(&r,&u,&v);
-    U1(e).x=-4.0;U2(e).y=4.0;U3(e).z=0.0;
+    U1(e).x=-4.0f; U2(e).y=4.0f; U3(e).z=0.0f;
     expect_vec(e,r);
 
 /*_______________________VectorDotProduct__________________________*/
     mod=pD3DRMVectorDotProduct(&u,&v);
-    ok((mod == 16.0), "Expected 16.0, Got %f\n",mod);
+    ok((mod == 16.0f), "Expected 16.0f, Got %f\n", mod);
 
 /*_______________________VectorModulus_____________________________*/
     mod=pD3DRMVectorModulus(&u);
-    ok((mod == 3.0), "Expected 3.0, Got %f\n",mod);
+    ok((mod == 3.0f), "Expected 3.0f, Got %f\n", mod);
 
 /*_______________________VectorNormalize___________________________*/
     pD3DRMVectorNormalize(&u);
-    U1(e).x=2.0/3.0;U2(e).y=2.0/3.0;U3(e).z=1.0/3.0;
+    U1(e).x=2.0f/3.0f; U2(e).y=2.0f/3.0f; U3(e).z=1.0f/3.0f;
     expect_vec(e,u);
 
 /* If u is the NULL vector, MSDN says that the return vector is NULL. In fact, the returned vector is (1,0,0). The following test case prove it. */
 
-    U1(casnul).x=0.0; U2(casnul).y=0.0; U3(casnul).z=0.0;
+    U1(casnul).x=0.0f; U2(casnul).y=0.0f; U3(casnul).z=0.0f;
     pD3DRMVectorNormalize(&casnul);
-    U1(e).x=1.0; U2(e).y=0.0; U3(e).z=0.0;
+    U1(e).x=1.0f; U2(e).y=0.0f; U3(e).z=0.0f;
     expect_vec(e,casnul);
 
 /*____________________VectorReflect_________________________________*/
-    U1(ray).x=3.0; U2(ray).y=-4.0; U3(ray).z=5.0;
-    U1(norm).x=1.0; U2(norm).y=-2.0; U3(norm).z=6.0;
-    U1(e).x=79.0; U2(e).y=-160.0; U3(e).z=487.0;
+    U1(ray).x=3.0f; U2(ray).y=-4.0f; U3(ray).z=5.0f;
+    U1(norm).x=1.0f; U2(norm).y=-2.0f; U3(norm).z=6.0f;
+    U1(e).x=79.0f; U2(e).y=-160.0f; U3(e).z=487.0f;
     pD3DRMVectorReflect(&r,&ray,&norm);
     expect_vec(e,r);
 
 /*_______________________VectorRotate_______________________________*/
-    U1(w).x=3.0; U2(w).y=4.0; U3(w).z=0.0;
-    U1(axis).x=0.0; U2(axis).y=0.0; U3(axis).z=1.0;
-    theta=2.0*PI/3.0;
+    U1(w).x=3.0f; U2(w).y=4.0f; U3(w).z=0.0f;
+    U1(axis).x=0.0f; U2(axis).y=0.0f; U3(axis).z=1.0f;
+    theta=2.0f*PI/3.0f;
     pD3DRMVectorRotate(&r,&w,&axis,theta);
-    U1(e).x=-0.3-0.4*sqrt(3.0); U2(e).y=0.3*sqrt(3.0)-0.4; U3(e).z=0.0;
+    U1(e).x=-0.3f-0.4f*sqrtf(3.0f); U2(e).y=0.3f*sqrtf(3.0f)-0.4f; U3(e).z=0.0f;
     expect_vec(e,r);
 
 /* The same formula gives D3DRMVectorRotate, for theta in [-PI/2;+PI/2] or not. The following test proves this fact.*/
-    theta=-PI/4.0;
-    pD3DRMVectorRotate(&r,&w,&axis,-PI/4);
-    U1(e).x=1.4/sqrt(2.0); U2(e).y=0.2/sqrt(2.0); U3(e).z=0.0;
+    theta=-PI/4.0f;
+    pD3DRMVectorRotate(&r,&w,&axis,theta);
+    U1(e).x=1.4f/sqrtf(2.0f); U2(e).y=0.2f/sqrtf(2.0f); U3(e).z=0.0f;
     expect_vec(e,r);
 
 /*_______________________VectorScale__________________________*/
-    par=2.5;
+    par=2.5f;
     pD3DRMVectorScale(&r,&v,par);
-    U1(e).x=10.0; U2(e).y=10.0; U3(e).z=0.0;
+    U1(e).x=10.0f; U2(e).y=10.0f; U3(e).z=0.0f;
     expect_vec(e,r);
 }
 
@@ -203,11 +203,11 @@ static void MatrixTest(void)
     D3DRMQUATERNION q;
     D3DRMMATRIX4D exp,mat;
 
-    exp[0][0]=-49.0; exp[0][1]=4.0;   exp[0][2]=22.0;  exp[0][3]=0.0;
-    exp[1][0]=20.0;  exp[1][1]=-39.0; exp[1][2]=20.0;  exp[1][3]=0.0;
-    exp[2][0]=10.0;  exp[2][1]=28.0;  exp[2][2]=-25.0; exp[2][3]=0.0;
-    exp[3][0]=0.0;   exp[3][1]=0.0;   exp[3][2]=0.0;   exp[3][3]=1.0;
-    q.s=1.0; U1(q.v).x=2.0; U2(q.v).y=3.0; U3(q.v).z=4.0;
+    exp[0][0]=-49.0f; exp[0][1]=4.0f;   exp[0][2]=22.0f;  exp[0][3]=0.0f;
+    exp[1][0]=20.0f;  exp[1][1]=-39.0f; exp[1][2]=20.0f;  exp[1][3]=0.0f;
+    exp[2][0]=10.0f;  exp[2][1]=28.0f;  exp[2][2]=-25.0f; exp[2][3]=0.0f;
+    exp[3][0]=0.0f;   exp[3][1]=0.0f;   exp[3][2]=0.0f;   exp[3][3]=1.0f;
+    q.s=1.0f; U1(q.v).x=2.0f; U2(q.v).y=3.0f; U3(q.v).z=4.0f;
 
    pD3DRMMatrixFromQuaternion(mat,&q);
    expect_mat(exp,mat);
@@ -220,10 +220,10 @@ static void QuaternionTest(void)
     D3DRMQUATERNION q,q1,q2,r;
 
 /*_________________QuaternionFromRotation___________________*/
-    U1(axis).x=1.0; U2(axis).y=1.0; U3(axis).z=1.0;
-    theta=2.0*PI/3.0;
+    U1(axis).x=1.0f; U2(axis).y=1.0f; U3(axis).z=1.0f;
+    theta=2.0f*PI/3.0f;
     pD3DRMQuaternionFromRotation(&r,&axis,theta);
-    q.s=0.5; U1(q.v).x=0.5; U2(q.v).y=0.5; U3(q.v).z=0.5;
+    q.s=0.5f; U1(q.v).x=0.5f; U2(q.v).y=0.5f; U3(q.v).z=0.5f;
     expect_quat(q,r);
 
 /*_________________QuaternionSlerp_________________________*/
@@ -231,12 +231,12 @@ static void QuaternionTest(void)
  * interpolation. Moreover, if the angle of the two quaternions is in ]PI/2;3PI/2[, QuaternionSlerp
  * interpolates between the first quaternion and the opposite of the second one. The test proves
  * these two facts. */
-    par=0.31;
-    q1.s=1.0; U1(q1.v).x=2.0; U2(q1.v).y=3.0; U3(q1.v).z=50.0;
-    q2.s=-4.0; U1(q2.v).x=6.0; U2(q2.v).y=7.0; U3(q2.v).z=8.0;
+    par=0.31f;
+    q1.s=1.0f; U1(q1.v).x=2.0f; U2(q1.v).y=3.0f; U3(q1.v).z=50.0f;
+    q2.s=-4.0f; U1(q2.v).x=6.0f; U2(q2.v).y=7.0f; U3(q2.v).z=8.0f;
 /* The angle between q1 and q2 is in [-PI/2,PI/2]. So, one interpolates between q1 and q2. */
-    epsilon=1.0;
-    g=1.0-par; h=epsilon*par;
+    epsilon=1.0f;
+    g=1.0f-par; h=epsilon*par;
 /* Part of the test proving that the interpolation is linear. */
     q.s=g*q1.s+h*q2.s;
     U1(q.v).x=g*U1(q1.v).x+h*U1(q2.v).x;
@@ -245,11 +245,11 @@ static void QuaternionTest(void)
     pD3DRMQuaternionSlerp(&r,&q1,&q2,par);
     expect_quat(q,r);
 
-    q1.s=1.0; U1(q1.v).x=2.0; U2(q1.v).y=3.0; U3(q1.v).z=50.0;
-    q2.s=-94.0; U1(q2.v).x=6.0; U2(q2.v).y=7.0; U3(q2.v).z=-8.0;
+    q1.s=1.0f; U1(q1.v).x=2.0f; U2(q1.v).y=3.0f; U3(q1.v).z=50.0f;
+    q2.s=-94.0f; U1(q2.v).x=6.0f; U2(q2.v).y=7.0f; U3(q2.v).z=-8.0f;
 /* The angle between q1 and q2 is not in [-PI/2,PI/2]. So, one interpolates between q1 and -q2. */
-    epsilon=-1.0;
-    g=1.0-par; h=epsilon*par;
+    epsilon=-1.0f;
+    g=1.0f-par; h=epsilon*par;
     q.s=g*q1.s+h*q2.s;
     U1(q.v).x=g*U1(q1.v).x+h*U1(q2.v).x;
     U2(q.v).y=g*U2(q1.v).y+h*U2(q2.v).y;
@@ -264,61 +264,61 @@ static void ColorTest(void)
     D3DVALUE expected, got, red, green, blue, alpha;
 
 /*___________D3DRMCreateColorRGB_________________________*/
-    red=0.8;
-    green=0.3;
-    blue=0.55;
+    red=0.8f;
+    green=0.3f;
+    blue=0.55f;
     expected_color=0xffcc4c8c;
     got_color=pD3DRMCreateColorRGB(red,green,blue);
     ok((expected_color==got_color),"Expected color=%x, Got color=%x\n",expected_color,got_color);
 
 /*___________D3DRMCreateColorRGBA________________________*/
-    red=0.1;
-    green=0.4;
-    blue=0.7;
-    alpha=0.58;
+    red=0.1f;
+    green=0.4f;
+    blue=0.7f;
+    alpha=0.58f;
     expected_color=0x931966b2;
     got_color=pD3DRMCreateColorRGBA(red,green,blue,alpha);
     ok((expected_color==got_color),"Expected color=%x, Got color=%x\n",expected_color,got_color);
 
 /* if a component is <0 then, then one considers this compenent as 0. The following test proves this fact (test only with the red component). */
-    red=-0.88;
-    green=0.4;
-    blue=0.6;
-    alpha=0.41;
+    red=-0.88f;
+    green=0.4f;
+    blue=0.6f;
+    alpha=0.41f;
     expected_color=0x68006699;
     got_color=pD3DRMCreateColorRGBA(red,green,blue,alpha);
     ok((expected_color==got_color),"Expected color=%x, Got color=%x\n",expected_color,got_color);
 
 /* if a component is >1 then, then one considers this compenent as 1. The following test proves this fact (test only with the red component). */
-    red=2.37;
-    green=0.4;
-    blue=0.6;
-    alpha=0.41;
+    red=2.37f;
+    green=0.4f;
+    blue=0.6f;
+    alpha=0.41f;
     expected_color=0x68ff6699;
     got_color=pD3DRMCreateColorRGBA(red,green,blue,alpha);
     ok((expected_color==got_color),"Expected color=%x, Got color=%x\n",expected_color,got_color);
 
 /*___________D3DRMColorGetAlpha_________________________*/
     color=0x0e4921bf;
-    expected=14.0/255.0;
+    expected=14.0f/255.0f;
     got=pD3DRMColorGetAlpha(color);
     ok((fabs(expected-got)<admit_error),"Expected=%f, Got=%f\n",expected,got);
 
 /*___________D3DRMColorGetBlue__________________________*/
     color=0xc82a1455;
-    expected=1.0/3.0;
+    expected=1.0f/3.0f;
     got=pD3DRMColorGetBlue(color);
     ok((fabs(expected-got)<admit_error),"Expected=%f, Got=%f\n",expected,got);
 
 /*___________D3DRMColorGetGreen_________________________*/
     color=0xad971203;
-    expected=6.0/85.0;
+    expected=6.0f/85.0f;
     got=pD3DRMColorGetGreen(color);
     ok((fabs(expected-got)<admit_error),"Expected=%f, Got=%f\n",expected,got);
 
 /*___________D3DRMColorGetRed__________________________*/
     color=0xb62d7a1c;
-    expected=3.0/17.0;
+    expected=3.0f/17.0f;
     got=pD3DRMColorGetRed(color);
     ok((fabs(expected-got)<admit_error),"Expected=%f, Got=%f\n",expected,got);
 }