void set_val_sphere(t_env *env, float t, t_ray ray)
{
t_vector scaled;
scaled = vector_scale(t, &ray.dir);
OBJ.new_start = vector_add(&ray.start, &scaled);
OBJ.normal = vector_sub(&OBJ.new_start, &SP_POS(OBJ.cur_sphere));
if (vector_dot(&OBJ.normal, &OBJ.normal) == 0)
{
env->br = 1;
return ;
}
OBJ.normal = vector_scale(1.0f / ABSV(OBJ.normal), &OBJ.normal);
OBJ.cur_mat = env->obj.mats[SPHERES[OBJ.cur_sphere].shape.material];
}
char *test_add_with_retain_policy()
{
vector_p vector = vector_create(sizeof(int));
vector_copy_elements(vector);
int *original = test_data(1);
vector_add(vector, original);
int *got = (int*)vector_get(vector, 0);
mu_assert(*got == 1, "expected same value");
mu_assert(got != original, "shouldn't get same data back");
vector_free(vector);
return NULL;
}
static void SampleFace(Vector outV, Vector xv, Vector yv, Vector zv, CosineBlurFilterContext *context, RenderFlags flags, FPMColor *colorAccum, float *weightAccum)
{
assert(colorAccum != NULL && weightAccum != NULL);
FPMDimension size = context->size;
float scaleBias = context->scaleBias;
float scaleOffset = context->scaleOffset;
float incr = 2.0f / size;
FPMDimension x, y;
for (y = 0; y < size; y++)
{
float fy = (float)y * incr - 1.0f;
float fx = -1.0f;
for (x = 0; x < size; x++, fx += incr)
{
Vector v = vector_add(vector_multiply_scalar(xv, fx), vector_add(vector_multiply_scalar(yv, fy), zv));
v = vector_normal(v);
float weight = dot_product(v, outV);
if (weight <= 0.0f) continue;
FPMColor color = context->source(MakeCoordsVector(v), flags, context->sourceContext);
if (!IsValidColor(color))
{
continue;
}
float localWeight = (scaleBias + color.a * scaleOffset);
color = FPMColorMultiply(color, weight * localWeight);
*colorAccum = FPMColorAdd(*colorAccum, color);
*weightAccum += weight;
}
}
}
void set_val_tri(t_env *env, float t, t_ray ray)
{
t_vector scaled;
scaled = vector_scale(t, &ray.dir);
OBJ.new_start = vector_add(&ray.start, &scaled);
OBJ.normal = TRI[OBJ.cur_tri].normal;
if (vector_dot(&OBJ.normal, &OBJ.normal) == 0)
{
env->br = 1;
return ;
}
OBJ.normal = vector_scale(1.0f / ABSV(OBJ.normal), &OBJ.normal);
OBJ.cur_mat = env->obj.mats[TRI[OBJ.cur_tri].shape.material];
}
void CStaticSprite::render(Camera* camera) {
Vector_ pos;
go->pos(&pos);
vector_add(&pos, &pos, &offset);
Sprite sprite = GIGGLE->make_sprite();
sprite_fillfromentry(sprite, entry);
sprite->displayX = pos.x;
sprite->displayY = pos.y;
sprite->originX = 0.5;
sprite->originY = 0.5;
sprite->angle = go->angle() + angle_offset;
camera->addSprite(&camera->layers[layer], sprite);
}
char *test_insert_at_beginning()
{
vector_p vector = vector_create(sizeof(int));
vector_add(vector, test_data(1));
int did_insert = vector_insert(vector, 0, test_data(0));
mu_assert(vector->length == 2, "should have a length of 2");
mu_assert(did_insert, "should have inserted");
mu_assert(*(int*)vector_get(vector, 0) == 0, "should have added item at start");
mu_assert(*(int*)vector_get(vector, 1) == 1, "should have moved other items");
vector_free(vector);
return NULL;
}
void rk (ODEFunc ode, float *xn, float *xn1, int dim, float time, float tdelt, float *scratch)
{
float *kv1, *kv2, *kv3, *kv4, *a, *s;
kv1 = &scratch[dim * 0];
kv2 = &scratch[dim * 1];
kv3 = &scratch[dim * 2];
kv4 = &scratch[dim * 3];
a = &scratch[dim * 4];
s = &scratch[dim * 5];
k1 (ode, xn, kv1, time, tdelt);
k2 (ode, xn, kv2, kv1, time, tdelt, dim, s);
k3 (ode, xn, kv3, kv2, time, tdelt, dim, s);
k4 (ode, xn, kv4, kv3, time, tdelt, dim, s);
vector_scale (kv2, 2, kv2, dim);
vector_scale (kv3, 2, kv3, dim);
vector_add (kv1, kv2, a, dim);
vector_add (a, kv3, a, dim);
vector_add (a, kv4, a, dim);
vector_scale (a, tdelt / 6.0, a, dim);
vector_add (xn, a, xn1, dim);
}
void calculate_forces(simulation_t* sim)
{
int i,j;
for(i=0;i<sim->num_celestial_bodies;i++)
{
//Calculate forces between celestial_bodies
for(j=i+1;j<sim->num_celestial_bodies;j++)
{
vector_t force=calculate_gravitation((object_t*)(&sim->celestial_bodies[j]),(object_t*)(&sim->celestial_bodies[i]));
sim->celestial_bodies[i].base.force=vector_add(sim->celestial_bodies[i].base.force,force);
sim->celestial_bodies[j].base.force=vector_subtract(sim->celestial_bodies[j].base.force,force);
}
}
}
ENTRYPOINT void draw_jigglypuff(ModeInfo *mi)
{
jigglystruct *js = &jss[MI_SCREEN(mi)];
glXMakeCurrent(MI_DISPLAY(mi), MI_WINDOW(mi), *(js->glx_context));
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
glMatrixMode(GL_MODELVIEW);
glLoadIdentity();
glTranslatef(0,0,-10);
glRotatef(js->angle, sin(js->axis), cos(js->axis), -sin(js->axis));
glTranslatef(0, 0, 5);
if(!(js->button_down)) {
if((js->angle += js->speed) >= 360.0f ) {
js->angle -= 360.0f;
}
if((js->axis+=0.01f) >= 2*M_PI ) {
js->axis -= 2*M_PI;
}
}
/* Do it twice because we don't track the device's orientation. */
glRotatef( current_device_rotation(), 0, 0, 1);
gltrackball_rotate(js->trackball);
glRotatef(-current_device_rotation(), 0, 0, 1);
if(js->color_style == COLOR_STYLE_CYCLE) {
int i;
vector_add(js->jiggly_color, js->color_dir, js->jiggly_color);
for(i=0; i<3; i++) {
if(js->jiggly_color[i] > 1.0 || js->jiggly_color[i] < 0.3) {
js->color_dir[i] = (-js->color_dir[i]);
js->jiggly_color[i] += js->color_dir[i];
}
}
glColor4fv(js->jiggly_color);
}
mi->polygon_count = jigglypuff_render(js);
if(MI_IS_FPS(mi))
do_fps(mi);
glFinish();
update_shape(js);
glXSwapBuffers(MI_DISPLAY(mi), MI_WINDOW(mi));
}
char *test_add_elements_causing_expand()
{
vector_p vector = vector_create(sizeof(int));
for(int i = 0 ; i < 20 ;++i)
{
vector_add(vector, test_data(i));
}
mu_assert(vector->capacity == 20, "expected capacity of 20");
mu_assert(*(int*)vector_get(vector, 0) == 0, "expected 0");
mu_assert(*(int*)vector_get(vector, 19) == 19, "expected 0");
vector_free(vector);
return NULL;
}
void spacecraft_collision(simulation_t* sim,spacecraft_t* spacecraft)
{
vector_t displacement=vector_subtract(spacecraft->base.position,spacecraft->orbit.primary->base.position);
double distance=vector_magnitude(displacement);
double penetration=spacecraft->orbit.primary->radius-distance;
if(penetration>0)
{
displacement=vector_multiply((distance+penetration)/distance,displacement);
spacecraft->base.position=vector_add(spacecraft->orbit.primary->base.position,displacement);
spacecraft->base.velocity=spacecraft->orbit.primary->base.velocity;
spacecraft->base.velocity.x+=spacecraft->orbit.primary->base.delta_rot*displacement.y;
spacecraft->base.velocity.y+=-spacecraft->orbit.primary->base.delta_rot*displacement.x;
spacecraft->base.rotation=atan2(-displacement.y,displacement.x)+M_PI/2;
spacecraft->base.delta_rot=0;
}
}
rcl_status cl_create_program(struct client_state* state, char* source,
program_t* program_id)
{
int32_t index;
cl_int error;
rcl_status status = RCL_HOST_RESOURCE;
struct program_state* program_state;
size_t size = strlen(source);
log_print(log_notice, "Creating program");
program_state = malloc(sizeof(struct program_state));
if (!program_state)
goto out_alloc;
program_state->source = strdup(source);
if (!program_state->source)
goto out_alloc;
program_state->flags = NULL;
program_state->id = clCreateProgramWithSource(state->context, 1,
(const char **)&source, (const size_t *)&size, &error);
if (error != CL_SUCCESS) {
log_print(log_error, "Error creating program: %s", clerror_name(error));
status = opencl_error(error);
goto out_alloc;
}
index = vector_add(&state->programs, &program_state);
if (index < 0) {
status = RCL_HOST_RESOURCE;
goto out_release;
}
*program_id = index;
return RCL_OK;
out_release:
clReleaseProgram(program_state->id);
out_alloc:
if (program_state)
free(program_state->source);
free(program_state);
return status;
}
static int vector_vector_op(zend_uchar opcode, zval *result, zval *vec1, zval *vec2) /* {{{ */
{
if (Z_OBJCE_P(vec1) != Z_OBJCE_P(vec2)) {
zend_throw_exception(NULL, "Vectors must be of the same type", 0);
return FAILURE;
}
switch(opcode) {
case ZEND_ADD:
return vector_add(result, vec1, vec2);
case ZEND_SUB:
return vector_sub(result, vec1, vec2);
}
zend_throw_exception(NULL, "Unsupported vector operation", 0);
return FAILURE;
}
void FUNC( smc_step, TYPE)(
T* x, T* w, int N, int Dx, int Dy,
T* y, T* scale_step, T* step, T* x_out, int t, T* args) {
T* x_o;
T* x_i;
T* yt = vector_get(y, Dy, t);
for (int i = 0; i < N; i++) {
x_o = vector_get(x_out, Dx, i);
x_i = vector_get(x, Dx, i);
matrix_times(scale_step, x_i, x_o, Dx, Dx, Dx, 1);
vector_add(vector_get(step, Dx, i), x_o, x_o, Dx);
w[i] *= LIKELIHOOD_H(x_o, yt, args, Dx, Dy);
}
}
int sem_init(int start_val)
{
int init = -1;
if(checkEmpty(&sem_stack)){
init = vector_add(&sem_list, &start_val);
}
else{ // use top stack value
init = pop(&sem_stack);
vector_set(&sem_list, init, &start_val);
}
return init;
// I'm not sure where we should return the ENOMEM error val..
// ..probably in the vector.c file
}
void CTestDisplay::render(Camera* camera) {
Vector_ pos;
go->pos(&pos);
vector_add(&pos, &pos, &offset);
ColoredRect rect = (ColoredRect)GIGGLE->renderer->alloc(sizeof(ColoredRect_));
rect->minx = pos.x - w/2;
rect->maxx = pos.x + w/2;
rect->miny = pos.y - h/2;
rect->maxy = pos.y + h/2;
rect->color[0] = color.r;
rect->color[1] = color.g;
rect->color[2] = color.b;
rect->color[3] = color.a;
camera->addRect(&camera->testRects[layer], rect);
}
int main(int argc, char *argv[]){
if(argc !=2){
printf("Usage: %s filename", argv[0]);
exit(EXIT_FAILURE);
}
FILE *file = fopen(argv[1],"r");
if(file ==NULL){
printf("could not open file\n");
exit(EXIT_FAILURE);
}
char * line = NULL;
size_t len = 0;
ssize_t read;
TestData *tdata;
vector v;
vector_init(&v);
/*
* TestData struct not fit in
* hold test data in vector
*
*/
while ((read = getline(&line, &len,file))!=-1){
printf("Retrieved line of length %zu :\n", read);
vector_add(&v,line);
printf("%s", line);
}
fclose(file);
/*
*
*
* def struct to hold test data
*
*/
int n;
SRunner *sr;
sr = srunner_create(make_add_suite2());
srunner_run_all(sr, CK_VERBOSE);
n = srunner_ntests_failed(sr);
srunner_free(sr);
return (n==0)? EXIT_SUCCESS:EXIT_FAILURE;
}
t_vector *arm_findalloptions(t_vector *arm)
{
int i;
t_arm_argument *arg;
t_vector *options;
options = vector_new(VECTOR_DEFAULT_CAPACITY);
i = 0;
while (i < arm->total)
{
arg = vector_get(arm, i);
if (arm_isoption(arg))
vector_add(options, arg);
i++;
}
return (options);
}
// FIXME this does not work as expected/desired for a multi-character delimiter
// since it uses strtok under the hood
LValue *l_func_str_split(LValue *args, LClosure *closure) {
LValue *string = l_list_get(args, 0);
LValue *delim = l_list_get(args, 1);
l_assert_is(string, L_STR_TYPE, L_ERR_MISSING_STR, closure);
l_assert_is(delim, L_STR_TYPE, L_ERR_MISSING_STR, closure);
int i, size;
char **strings = str_split(string->core.str->str, delim->core.str->str, &size);
LValue *value = l_value_new(L_LIST_TYPE, closure);
value->core.list = create_vector();
LValue *s;
for(i=0; i<size; i++) {
s = l_value_new(L_STR_TYPE, closure);
s->core.str = make_stringbuf(strings[i]);
vector_add(value->core.list, s, sizeof(s));
}
return value;
}
void spacecraft_position_docked(spacecraft_t* spacecraft)
{
int i;
for(i=0;i<spacecraft->num_docks;i++)
{
dock_t* dock=spacecraft->docks+i;
if(dock->docked_spacecraft!=NULL)
{
dock_t* docked_dock=&dock->docked_spacecraft->docks[dock->docked_dock];
vector_t dock_1_position=rotate_vector(dock->position,dock->orientation);
vector_t dock_2_position=rotate_vector(docked_dock->position,docked_dock->orientation);
dock->docked_spacecraft->base.position=vector_add(spacecraft->base.position,rotate_vector(vector_add(dock_1_position,dock_2_position),spacecraft->base.rotation));
dock->docked_spacecraft->base.rotation=spacecraft->base.rotation+dock->orientation+docked_dock->orientation+M_PI;
}
}
}
void Sprite_PlayAnimation(SpriteObj* sprite, const std::string& name, Sprite::AnimationMode mode, float transitionTime)
{
// Get animation
SpriteResource::Animation* animation = NULL;
if (name == std::string())
animation = sprite->resource->defaultAnimation;
else
{
std::map<std::string, SpriteResource::Animation>::iterator it = sprite->resource->animations.find(name);
if (it == sprite->resource->animations.end())
{
Log::Error(string_format("Animation %s not found in sprite %s", name.c_str(), sprite->resource->name.c_str()));
return;
}
animation = &it->second;
}
// Check if not already played
for (std::vector<SpriteObj::AnimationInstance>::iterator it = sprite->animationInstances.begin(); it != sprite->animationInstances.end(); ++it)
if (it->animation == animation)
return;
// Fade out or kill all other animations
const float weightChangeSpeed = transitionTime == 0.0f ? 0.0f : 1.0f / transitionTime;
if (mode != Sprite::AnimationMode_OnceWhenDone && mode != Sprite::AnimationMode_LoopWhenDone)
{
if (transitionTime == 0.0f)
sprite->animationInstances.clear();
else
for (std::vector<SpriteObj::AnimationInstance>::iterator it = sprite->animationInstances.begin(); it != sprite->animationInstances.end(); ++it)
it->weightChangeSpeed = -weightChangeSpeed;
}
// Create animation instance
SpriteObj::AnimationInstance& animationInstance = vector_add(sprite->animationInstances);
animationInstance.animation = animation;
animationInstance.mode = mode;
animationInstance.time = 0.0f;
animationInstance.weight = transitionTime == 0.0f ? 1.0f : 0.0f;
animationInstance.weightChangeSpeed = weightChangeSpeed;
}
/*
=================
line_recalculate
=================
*/
GNUC_NONNULL static void line_recalculate (const g_entity_t *ent)
{
const double zero[3] = { 0.0, 0.0, 1.0 };
ent_render_line_t *r = ent->render_data;
double length, v[3], n[3];
if (!ent->render_valid)
return;
if (r->width < 0.1)
{
r->draw = false;
return;
}
vector_sub(r->finish, ent->origin, v);
length = vector_length(v);
if (length < 0.1)
{
r->draw = false;
return;
}
r->draw = true;
vector_normal(v, zero, n);
vector_normalize(n);
vector_mul(n, r->width / 2.0, n);
r->verts[0] = n[0];
r->verts[1] = n[1];
r->verts[2] = -n[0];
r->verts[3] = -n[1];
vector_add(r->finish, n, &r->verts[4]);
vector_sub(&r->verts[4], ent->origin, &r->verts[4]);
vector_sub(r->finish, n, &r->verts[6]);
vector_sub(&r->verts[6], ent->origin, &r->verts[6]);
r->texcoords[0] = 0.0; r->texcoords[1] = length / r->texture->w;
r->texcoords[2] = 1.0; r->texcoords[3] = r->texcoords[1];
r->texcoords[4] = 0.0; r->texcoords[5] = 0.0;
r->texcoords[6] = 1.0; r->texcoords[7] = 0.0;
}
void CDrawTilemap::render(Camera* camera) {
if(!map) return;
if(map_dirty) {
Vector_ pos;
go->pos(&pos);
vector_add(&pos, &pos, &offset);
float w = map->width_IT * map->tile_width_IP;
float h = map->height_IT * map->tile_height_IP;
BaseSprite sprites = map->spritelist(NULL, 0, 0, w, h, &pos);
camera->addRenderable(layer, renderer, sprites);
map_dirty = 0;
} else {
camera->addRenderable(layer, renderer, NULL);
}
}
Vector *vector_with(const Vector *vector, void *value)
{
if(NULL == vector || NULL == value)
{
errno = EINVAL;
return NULL;
}
Vector *result = vector_copy(vector);
if(NULL == result)
{
return NULL;
}
vector_add(result, value);
return result;
}
/**
* Render a single ray from a camera.
* \param s Scene to render.
* \param r Ray being cast.
* \param wavelength
* \param depth How deep are we in the recursion?
* \return Energy of the ray.
*/
static float render_ray(const struct scene *s, struct ray *r, wavelength_t wavelength, int depth){
if(depth > MAX_DEPTH){
return 0;
}
struct object *obj = NULL;
MEASUREMENTS_RAY_SCENE_INTERSECTION();
float distance = kd_tree_ray_intersection(&(s->tree), r, 0, INFINITY, &obj);
if(isnan(distance)){
// If the ray didn't hit anything, it stays black.
return 0;
}
vector_t pointInCameraSpace = vector_add(r->origin, vector_multiply(r->direction, distance));
vector_t pointInObjectSpace = vector_transform(pointInCameraSpace, &(obj->invTransform));
vector_t normalInObjectSpace = obj->get_normal(obj, pointInObjectSpace);
vector_t normalInCameraSpace = vector_normalize(vector_transform_direction(normalInObjectSpace, &(obj->transform)));
#if DOT_PRODUCT_SHADING
(void)wavelength;
return fabsf(vector_dot(normalInCameraSpace, r->direction));
#else
float energy = 0;
/// \todo Surface properties shouldn't be in camera space.
if(object_is_light_source(obj)){
energy = (obj->light.energy)(pointInCameraSpace, wavelength, normalInCameraSpace, r->direction);
}
struct outgoing_direction sample =
(obj->surface.sample)(pointInCameraSpace, wavelength, normalInCameraSpace, r->direction);
struct ray newRay;
ray_from_direction(&newRay, pointInCameraSpace, sample.direction);
energy += sample.weight * render_ray(s, &newRay, wavelength, depth + 1);
return energy;
#endif
}
void verlet(const data* dat, output_function output)
{
int i;
const double dt = dat->eta * delta_t_factor; // konstant
vector *a = (vector*) malloc((dat->N)*sizeof(vector)),
*a_1 = (vector*) malloc((dat->N)*sizeof(vector)),
*r_p = (vector*) malloc((dat->N)*sizeof(vector)), // r_(n-1), not initialized
*r = init_r(dat), // r_(n)
*r_n = (vector*) malloc((dat->N)*sizeof(vector)), // r_(n+1), not initialized
*v = init_v(dat); // v_(n)
double time = 0;
output(time, dt, dat, r, v);
// set initial data
accelerations(dat, r, a); // a_0
adots(dat, r, v, a_1);
for (i = 0; i < dat->N; i++)
{
// set r_(-1)
r_p[i] = vector_add(r[i],
vector_add(scalar_mult(dt, v[i]),
scalar_mult(0.5 * dt * dt, a[i])));
// set r_1
r_n[i] = vector_add(scalar_mult(2, r[i]),
vector_add(scalar_mult(-1, r_p[i]),
scalar_mult(dt * dt, a[i])));
}
//time += dt;
// regular timesteps
while (time < dat->t_max)
{
accelerations(dat, r_n, a); // a_n+1 (gets shifted to a_n)
for (i = 0; i < dat->N; i++)
{
// shift indexes n+1 -> n
r_p[i] = r[i];
r[i] = r_n[i];
r_n[i] = vector_add(scalar_mult(2, r[i]),
vector_add(scalar_mult(-1, r_p[i]),
scalar_mult(dt * dt, a[i])));
v[i] = scalar_mult(0.5 / dt, vector_diff(r_n[i], r_p[i]));
}
adots(dat, r, v, a_1);
time += dt;
output(time, dt, dat, r, v);
}
free(a); free(r_p); free(r); free(r_n); free(v);
}
Bool line_triangle_solve( float A[3], float B[3],
float C[3], float D[3], float E[3],
float X[3], double *t)
{
/* sets X to the intersection of line AB with triangle CDE */
float m[3][3];
double d, d1;
if(vector_eq(A,B))
{
printf("intersection of AB with CDE not found: A=B !!!\n");
return False;
}
if(vector_eq(C,D) ||vector_eq(C,E) || vector_eq(D,E) )
{
printf("intersection of AB with CDE not found: CDE is not a triangle !!!\n");
return False;
}
vector_sub(D,C, m[0]);
vector_sub(E,C, m[1]);
vector_sub(A,B, m[2]);
d=matrix3_det(m);
if(d==0)
{
printf("intersection of AB with CDE not found: AB and CDE are parallel !!!\n");
return False;
}
vectorcpy(X, m[2]);
vector_sub(A,C, m[2]);
d1=matrix3_det(m);
*t=d1/d;
vector_scale(-d1/d, X);
vector_add(A,X, X);
return True;
}
/*
* Calculate reflection color
*/
color refColor(const intersection *inter, const ray *srcRay) {
color cR = BLACK;
if (srcRay->depth == MAX_DEPTH)
return cR;
intersection refInter;
vec3 refVec = vector_reflect(srcRay->dir, inter->normal);
ray refRay; // Ray from object to other object
ray_init(&refRay, inter->position, refVec, EPSILON, 1000, srcRay->depth + 1);
int bounceFound = 0;
for (int k = 0; k < object_count; ++k) {
bounceFound += intersect(&refRay, &(scene[k]), &refInter);
}
color refCoef = reflectCoef(inter->mat.reflect_coef, inter->normal, srcRay->dir);
if (bounceFound)
cR = vector_vec_mul(refCoef, vector_add(refColor(&refInter, &refRay), lightColor(&refInter, &refRay)));
else
cR = vector_vec_mul(refCoef, SKY_COLOR);
return cR;
}
// App message in recieved handler for schedule
void schedule_in_received_handler(DictionaryIterator *iter) {
hide_loading_icon();
Tuple *schedule_time_tuple = dict_find(iter, SCHEDULE_TIME);
Tuple *index_tuple = dict_find(iter, INDEX);
Tuple *name_tuple = dict_find(iter, NAME);
if (index_tuple && schedule_time_tuple && name_tuple) {
entertainment_name = name_tuple->value->cstring;
EntertainmentTime *time = (EntertainmentTime *)malloc(sizeof(EntertainmentTime));
strncpy(time->time, schedule_time_tuple->value->cstring, sizeof(time->time));
time->index = index_tuple->value->int16;
if (times.data != NULL) {
vector_add(×, time);
layer_mark_dirty(menu_layer_get_layer(s_menulayer_1));
menu_layer_reload_data(s_menulayer_1);
}
} else {
}
}
char *test_remove_and_resize()
{
vector_p vector = vector_create(sizeof(int));
for(int i = 0 ; i < 80 ; ++i)
{
vector_add(vector, test_data(i));
}
for(int i = 0 ; i < 60 ; ++i)
{
vector_remove(vector, 0);
}
mu_assert(vector->capacity == 20, "should have reduced capacity");
vector_free(vector);
return NULL;
}
