void DisplayTopBar(int ypos, int ttexcol, int backcol, char *title, char*texx, ...) {
strcpy(topBar.text, get_translation(title));
char displbuf[3001];
va_list ap;
va_start(ap,texx);
my_sprintf(displbuf, get_translation(texx), ap);
va_end(ap);
if (ypos > 0)
play.top_bar_ypos = ypos;
if (ttexcol > 0)
play.top_bar_textcolor = ttexcol;
if (backcol > 0)
play.top_bar_backcolor = backcol;
topBar.wantIt = 1;
topBar.font = FONT_NORMAL;
topBar.height = wgetfontheight(topBar.font);
topBar.height += multiply_up_coordinate(play.top_bar_borderwidth) * 2 + get_fixed_pixel_size(1);
// they want to customize the font
if (play.top_bar_font >= 0)
topBar.font = play.top_bar_font;
// DisplaySpeech normally sets this up, but since we're not going via it...
if (play.cant_skip_speech & SKIP_AUTOTIMER)
play.messagetime = GetTextDisplayTime(texx);
DisplayAtY(play.top_bar_ypos, displbuf);
}
Rectf
DrawingContext::get_cliprect() const
{
return Rectf(get_translation().x, get_translation().y,
get_translation().x + SCREEN_WIDTH,
get_translation().y + SCREEN_HEIGHT);
}
void Editor::scroll_up(float speed) {
auto camera = currentsector->camera;
if (can_scroll_vert()) {
if (camera->get_translation().y >= speed*32) {
camera->move(0,-32*speed);
} else {
//When is the camera less than one tile after the top limit, it puts the camera to the limit.
camera->move(0, -camera->get_translation().y);
}
inputcenter.update_pos();
}
}
void Editor::scroll_left(float speed) {
auto camera = currentsector->camera;
if (can_scroll_horz()) {
if (camera->get_translation().x >= speed*32) {
camera->move(-32 * speed, 0);
} else {
//When is the camera less than one tile after the left limit, it puts the camera to the limit.
camera->move(-camera->get_translation().x, 0);
}
inputcenter.update_pos();
}
}
void Editor::scroll_down(float speed) {
auto camera = currentsector->camera;
if (can_scroll_vert()) {
if (camera->get_translation().y <= currentsector->get_height() - SCREEN_HEIGHT - 32 * speed) {
camera->move(0, 32*speed);
} else {
//When is the camera less than one tile after the bottom limit, it puts the camera to the limit.
// The limit is shifted 32 pixels to the bottom due to the layer toolbar.
camera->move(0, currentsector->get_height() - camera->get_translation().y - SCREEN_HEIGHT +32);
}
inputcenter.update_pos();
}
}
void Editor::scroll_right(float speed) {
auto camera = currentsector->camera;
if (can_scroll_horz()) {
if (camera->get_translation().x <= currentsector->get_width() - SCREEN_WIDTH + 128 - 32 * speed) {
camera->move(32*speed, 0);
} else {
//When is the camera less than one tile after the right limit, it puts the camera to the limit.
// The limit is shifted 128 pixels to the right due to the input gui.
camera->move(currentsector->get_width() - camera->get_translation().x - SCREEN_WIDTH +128, 0);
}
inputcenter.update_pos();
}
}
void DisplayAtY (int ypos, char *texx) {
if ((ypos < -1) || (ypos >= GetMaxScreenHeight()))
quitprintf("!DisplayAtY: invalid Y co-ordinate supplied (used: %d; valid: 0..%d)", ypos, GetMaxScreenHeight());
// Display("") ... a bit of a stupid thing to do, so ignore it
if (texx[0] == 0)
return;
if (ypos > 0)
ypos = multiply_up_coordinate(ypos);
if (game.options[OPT_ALWAYSSPCH])
DisplaySpeechAt(-1, (ypos > 0) ? divide_down_coordinate(ypos) : ypos, -1, game.playercharacter, texx);
else {
// Normal "Display" in text box
if (screen_is_dirty) {
// erase any previous DisplaySpeech
play.disabled_user_interface ++;
mainloop();
play.disabled_user_interface --;
}
_display_at(-1,ypos,scrnwid/2+scrnwid/4,get_translation(texx),1,0, 0, 0, false);
}
}
/* given an interface name, checks the interface to header name
translation list for a match. If found, returns the translation,
else returns interfacename. added by Dan Larner
*/
char* interface_header_name(char* pc_interfacename) {
static list list_translations = NULL;
static int i_list_creation_attempted = 0;
char* pc_translated_name ;
if (InterfaceHeaderTranslationFile == NULL)
return pc_interfacename; /* there is no translations file */
if (list_translations == NULL) { /* first time through (or bad file) */
if (i_list_creation_attempted == 1)
return pc_interfacename; /* already tried to create and failed */
list_translations =
make_header_translation_list(InterfaceHeaderTranslationFile);
i_list_creation_attempted = 1;
if (list_translations == NULL) {
fprintf (stderr,
"Couldn't make translations from file %s - ignoring file",
InterfaceHeaderTranslationFile);
return pc_interfacename; /* problem making translation list */
}
} /* end of creating translation list */
/* return the translation if there is one */
if ((pc_translated_name = get_translation(list_translations, pc_interfacename)) != NULL)
return pc_translated_name;
return pc_interfacename;
}
CL_CollisionOutline CL_CollisionOutline::clone() const
{
CL_CollisionOutline copy;
copy.impl->contours.clear();
copy.impl->contours.reserve(impl->contours.size());
for (size_t i = 0; i < impl->contours.size(); i++)
copy.impl->contours.push_back(impl->contours[i].clone());
copy.impl->do_inside_test = get_inside_test();
copy.impl->width = get_width();
copy.impl->height = get_height();
copy.impl->position = get_translation();
copy.impl->scale_factor = get_scale();
copy.impl->angle = get_angle();
copy.impl->minimum_enclosing_disc = get_minimum_enclosing_disc();
bool points, normals, metadata, pendepths;
get_collision_info_state(points,normals,metadata,pendepths);
copy.enable_collision_info(points,normals,metadata,pendepths);
CL_Origin origin;
float x, y;
get_alignment(origin,x,y);
copy.impl->translation_origin = origin;
copy.impl->translation_offset.x = x;
copy.impl->translation_offset.y = y;
get_rotation_hotspot(origin,x,y);
copy.impl->rotation_origin = origin;
copy.impl->rotation_hotspot.x = x;
copy.impl->rotation_hotspot.y = y;
return copy;
}
/* Return NULL if failed */
VecDBL * sym_get_pure_translation(SPGCONST Cell *cell,
const double symprec)
{
int multi;
VecDBL * pure_trans;
debug_print("sym_get_pure_translation (tolerance = %f):\n", symprec);
multi = 0;
pure_trans = NULL;
if ((pure_trans = get_translation(identity, cell, symprec, 1)) == NULL) {
warning_print("spglib: get_translation failed (line %d, %s).\n",
__LINE__, __FILE__);
return NULL;
}
multi = pure_trans->size;
if ((cell->size / multi) * multi == cell->size) {
debug_print(" sym_get_pure_translation: pure_trans->size = %d\n", multi);
} else {
;
warning_print("spglib: Finding pure translation failed (line %d, %s).\n", __LINE__, __FILE__);
warning_print(" cell->size %d, multi %d\n", cell->size, multi);
}
return pure_trans;
}
void planet_earth::update(const simulation_context *c)
{
large_rocky_body::update(c);
// find the moon if we don't already have it
if (!moon)
{
for (simple_array<node *>::iterator i = get_parent()->get_children().iter(); i.is_valid(); ++i)
{
if (*i && (*i)->get_name() == L"Moon")
{
moon = dynamic_cast<large_rocky_body *>(*i);
break;
}
}
}
// offset the center of the planet to the real position of the earth relative to the earth-moon barysystem
// we're one frame off, though, which is unfortunate
if (moon)
{
vector moon_dir = moon->get_translation(); // the moon's position in the frame of the earth-moon barysystem
moon_dir.normalize();
get_translation() = moon_dir * -BARYSYSTEM_OFFSET;
}
} // earth::update()
static int get_space_group_operation( int rot[][3][3],
double trans[][3],
SPGCONST PointSymmetry *lattice_sym,
SPGCONST Cell *cell,
const double symprec )
{
int i, j, k, num_sym;
VecDBL **tmp_trans;
num_sym = 0;
tmp_trans = (VecDBL**) malloc( sizeof( VecDBL* ) * lattice_sym->size );
#pragma omp parallel for
for (i = 0; i < lattice_sym->size; i++) {
/* get translation corresponding to a rotation */
tmp_trans[i] = get_translation( lattice_sym->rot[i], cell, symprec, 0 );
}
for (i = 0; i < lattice_sym->size; i++) {
for (j = 0; j < tmp_trans[i]->size; j++) {
for (k = 0; k < 3; k++) {
trans[num_sym + j][k] = tmp_trans[i]->vec[j][k];
}
mat_copy_matrix_i3(rot[num_sym + j], lattice_sym->rot[i]);
}
num_sym += tmp_trans[i]->size;
mat_free_VecDBL( tmp_trans[i] );
}
free( tmp_trans );
tmp_trans = NULL;
return num_sym;
}
void AnimationNode::set_transform(const D3DXMATRIX& transform)
{
transform_ = transform;
pos_ = get_translation(transform);
D3DXQuaternionRotationMatrix(&rot_, &transform);
scale_ = get_scale(transform);
}
void GetHotspotName(int hotspot, char *buffer) {
VALIDATE_STRING(buffer);
if ((hotspot < 0) || (hotspot >= MAX_HOTSPOTS))
quit("!GetHotspotName: invalid hotspot number");
strcpy(buffer, get_translation(thisroom.hotspotnames[hotspot]));
}
void orbital_frame::update(const simulation_context *c)
{
if (prop)
prop->update(c->julian_cur, get_translation(), get_linear_velocity());
assert(get_angular_velocity().mag() == 0);
} // orbital_frame::update()
void Display(char*texx, ...) {
char displbuf[STD_BUFFER_SIZE];
va_list ap;
va_start(ap,texx);
my_sprintf(displbuf, get_translation(texx), ap);
va_end(ap);
DisplayAtY (-1, displbuf);
}
Plane ARVRAnchor::get_plane() const {
Vector3 location = get_translation();
Basis orientation = get_transform().basis;
Plane plane(location, orientation.get_axis(1).normalized());
return plane;
};
void Button_SetText(GUIButton *butt, const char *newtx) {
newtx = get_translation(newtx);
if (strlen(newtx) > 49) quit("!SetButtonText: text too long, button has 50 chars max");
if (strcmp(butt->text, newtx)) {
guis_need_update = 1;
strcpy(butt->text,newtx);
}
}
void SRS::SetAimGoal(const float goal[3],
const float ax[3],
float flex_angle)
{
float s[3];
cpvector(ee, goal);
cpvector(axis, ax);
get_translation(T, p_r1);
get_translation(S, s);
get_aim_circle_equation(goal,
axis, p_r1, s, proj_axis, flex_angle, c, u, v, radius);
rotation_principal_axis_to_matrix('y', flex_angle, Ry);
vecmult(ee_r1, (float*)s, Ry);
vecadd(ee_r1, ee_r1, (float*)p_r1);
}
//
// Constructor stores the T and S matrices and the
// lengths of the upper and lower links
//
void SRS::init(const Matrix T1, const Matrix T2, const float a[3], const float p[3])
{
cpmatrix(T, T1);
cpmatrix(S, T2);
cpvector(proj_axis, a);
cpvector(pos_axis, p);
float t[3];
get_translation(T, t);
upper_len = norm(t);
reciprocal_upper_len = 1.0f / upper_len;
get_translation(S, t);
lower_len = norm(t);
project_to_workspace = 1;
}
int SRS::SetGoalPos(const float eee[3], const Matrix E, float &rangle)
{
Matrix Temp, RY;
float s[3];
// Find RY, and store the positions of the R jt and
// the ee in the R1 frame as p_r1 and ee_r1
get_translation(T, p_r1);
hmatmult(Temp,(float (*)[4]) E,S);
get_translation(Temp, s);
cpvector(ee,eee);
if (project_to_workspace)
scale_goal(p_r1,s,ee);
//
// Note instead of using the length of the lower limb
// we use the length of the lower limb extended by E
//
radius = get_circle_equation(ee,
proj_axis,
pos_axis,
upper_len,
norm(s), c, u, v, n);
if (!solve_R_angle(ee, s, p_r1, T, r_angle))
return 0;
rangle = r_angle;
// Find RY, and store the positions of the R jt and
// the ee in the R1 frame as p_r1 and ee_r1
rotation_principal_axis_to_matrix('y', r_angle, RY);
hmatmult(Temp, Temp, RY);
hmatmult(Temp, Temp, T);
get_translation(Temp, ee_r1);
return 1;
}
//
// Given the goal matrix and the projection axis, find the position
// of the end effector and the equation of the circle that defines
// how the R joint can swivel.
//
// Also compute the matrix S*RY*T and save it for future computations
//
int SRS::SetGoal(const Matrix GG, float &rangle)
{
Matrix RY;
float s[3];
cpmatrix(G, GG);
get_translation(G, ee);
get_translation(T, p_r1);
get_translation(S, s);
if (project_to_workspace && scale_goal(p_r1,s,ee))
set_translation(G,ee);
EvaluateCircle(ee);
//radius = get_circle_equation(ee, proj_axis, pos_axis,
// upper_len, lower_len, c, u, v, n);
//
// Build rotation matrix about the R joint
//
if (!solve_R_angle(ee, s, p_r1, T, r_angle))
return 0;
r_angle=-r_angle;
rangle = r_angle;
// Find RY, and store the positions of the R jt and
// the ee in the R1 frame as p_r1 and ee_r1
// Also save matrix product S*RY*T
rotation_principal_axis_to_matrix('y',-r_angle, RY);
hmatmult(SRT, S, RY);
hmatmult(SRT, SRT, T);
get_translation(SRT, ee_r1);
#ifdef SRSDEBUG
printf("EE distance error is %lf\n", norm(ee_r1) - norm(ee));
#endif
return 1;
}
/* *** SCRIPT SYMBOL: [String] String::Format^101 *** */
static const char* String_Format(const char *texx, ...) {
char displbuf[STD_BUFFER_SIZE];
va_list ap;
va_start(ap,texx);
my_sprintf(displbuf, get_translation(texx), ap);
va_end(ap);
return CreateNewScriptString(displbuf);
}
int sym_get_multiplicity(SPGCONST Cell *cell,
const double symprec)
{
int multi;
VecDBL * trans;
trans = get_translation(identity, cell, symprec, 1);
multi = trans->size;
mat_free_VecDBL(trans);
return multi;
}
/* *** SCRIPT SYMBOL: [String] StrFormat *** */
static void _sc_sprintf(char*destt,char*texx, ...) {
char displbuf[STD_BUFFER_SIZE];
VALIDATE_STRING(destt);
check_strlen(destt);
va_list ap;
va_start(ap,texx);
my_sprintf(displbuf, get_translation(texx), ap);
va_end(ap);
my_strncpy(destt, displbuf, MAXSTRLEN - 1);
}
inline void rebuild()
{
glm::mat4 matrix;
matrix = glm::translate(get_translation());
matrix *= glm::mat4(glm::mat3_cast(
get_rotation()));
matrix = glm::scale(matrix, get_scale());
m_matrix = glm::mat4x3(matrix);
}
void DisplayAt(int xxp,int yyp,int widd,char*texx, ...) {
char displbuf[STD_BUFFER_SIZE];
va_list ap;
va_start(ap,texx);
my_sprintf(displbuf, get_translation(texx), ap);
va_end(ap);
multiply_up_coordinates(&xxp, &yyp);
widd = multiply_up_coordinate(widd);
if (widd<1) widd=scrnwid/2;
if (xxp<0) xxp=scrnwid/2-widd/2;
_display_at(xxp,yyp,widd,displbuf,1,0, 0, 0, false);
}
/** @brief translate the port and address of the exiting connect syscall
*
* We take the arguments in the registers, which correspond to the real
* local address and port we established the connection on. We translate
* them into global simulated ones and put the result back in the registers,
* so that the application gets wronged.
*/
void sys_translate_connect_out(process_descriptor_t * proc, syscall_arg_u * sysarg)
{
connect_arg_t arg = &(sysarg->connect);
pid_t pid = proc->pid;
reg_s reg;
ptrace_get_register(pid, ®);
translate_desc_t *td = get_translation(ntohs(arg->sai.sin_port));
arg->sai.sin_port = htons(td->port_num);
arg->sai.sin_addr.s_addr = td->ip;
XBT_DEBUG("Restore %s:%d", inet_ntoa(arg->sai.sin_addr), td->port_num);
ptrace_poke(pid, (void *) reg.arg2, &(arg->sai), sizeof(struct sockaddr_in));
}
/** @brief translate the port and address of the exiting recvfrom syscall
*
* We take the arguments in the registers, which correspond to the real
* local address and port we received the message from. We translate them
* into global simulated ones and put the result back in the registers, so
* that the application gets wronged.
*/
void sys_translate_recvfrom_out(process_descriptor_t * proc, syscall_arg_u * sysarg)
{
recvfrom_arg_t arg = &(sysarg->recvfrom);
pid_t pid = proc->pid;
reg_s reg;
ptrace_get_register(pid, ®);
if (reg.arg5 == 0)
return;
translate_desc_t *td = get_translation(ntohs(arg->sai.sin_port));
arg->sai.sin_port = htons(td->port_num);
arg->sai.sin_addr.s_addr = td->ip;
ptrace_poke(pid, (void *) reg.arg5, &(arg->sai), sizeof(struct sockaddr_in));
}
// [DEPRECATED] but still used by Character_SayBackground, might merge since there are no other instances
int DisplaySpeechBackground(int charid, const char*speel) {
// remove any previous background speech for this character
int cc;
for (cc = 0; cc < numscreenover; cc++) {
if (screenover[cc].bgSpeechForChar == charid) {
remove_screen_overlay_index(cc);
cc--;
}
}
int ovrl=CreateTextOverlay(OVR_AUTOPLACE,charid,play.viewport.GetWidth()/2,FONT_SPEECH,
-game.chars[charid].talkcolor, get_translation(speel));
int scid = find_overlay_of_type(ovrl);
screenover[scid].bgSpeechForChar = charid;
screenover[scid].timeout = GetTextDisplayTime(speel, 1);
return ovrl;
}
