void show_tile (void)
{
set_grid(current_tile[5]);
set_next(next_tile[5]);
show_grid();
set_grid(0);
set_next(0);
}
void set_preference_display_settings()
{
set_grid(grid());
set_turbo(turbo());
set_turbo_speed(turbo_speed());
set_color_cursors(preferences::get("color_cursors", true));
}
AdaptiveRegularRefiner_MultiGrid::
AdaptiveRegularRefiner_MultiGrid(MultiGrid& mg,
IRefinementCallback* refCallback) :
HangingNodeRefiner_MultiGrid(refCallback)
{
set_grid(&mg);
}
/******************************************************************************
main --- main routine
******************************************************************************/
int main()
{
int imax, jmax, kmax;
para.geom = &geom;
para.outp = &outp1;
para.prob = &prob;
para.mytime = &mytime;
para.bc = &bc;
para.solv = &solv;
initial(¶);
imax = geom.imax, jmax = geom.jmax, kmax = geom.kmax;
if(!allocate_data( ))
exit ( 1 );
clear_data(¶, var);
set_grid(¶, var);
set_bnd_vel(¶, var, VY, v);
write_data1(¶, var, "grid");
FFD_solver(¶, var);
free_data(var);
getchar();
exit ( 0 );
} // End of main( )
/*
void ISelector::registered_at_grid(Grid* grid)
{
// if we're already registered at this grid then return
if(m_pGrid == grid)
return;
// if we're already registered at a grid, then unregister first
if(m_pGrid)
m_pGrid->unregister_observer(this);
// assign grid
m_pGrid = grid;
// initialise attachments and accessors.
// do this whith a little trick:
// set the supported-element-options to SE_NONE,
// then call enable for all element-types that should be supported.
uint tmpOpts = m_supportedElements;
m_supportedElements = SE_NONE;
enable_element_support(tmpOpts);
}
void ISelector::unregistered_from_grid(Grid* grid)
{
assert(m_pGrid == grid && "grids do not match!");
if(m_pGrid == grid){
// disable all currently supported elements (this will remove any attachments)
disable_element_support(m_supportedElements);
m_pGrid = NULL;
}
}
*/
void ISelector::grid_to_be_destroyed(Grid* grid)
{
assert(m_pGrid == grid && "grids do not match!");
if(m_pGrid == grid){
set_grid(NULL);
}
}
HangingNodeRefiner_Grid::
HangingNodeRefiner_Grid(Grid& grid,
IRefinementCallback* refCallback) :
BaseClass(refCallback),
m_pGrid(NULL),
m_aVertex(false)
{
set_grid(&grid);
}
void Dock_Grid::unset_grid(Snapping_Grid *grid)
{
if ( target == grid )
{
grid->disconnect(this);
disconnect(grid);
check_enable->disconnect(grid);
grid->disconnect(check_enable);
spin_size->disconnect(grid);
set_grid( nullptr );
}
}
display_manager::display_manager(display* d)
{
disp = d;
load_hotkeys();
set_grid(grid());
set_turbo(turbo());
set_turbo_speed(turbo_speed());
set_scroll_to_action(scroll_to_action());
set_color_cursors(preferences::get("color_cursors", false));
}
static int dotbot_stream_callback(struct libwebsocket_context *context,
struct libwebsocket *wsi,
enum libwebsocket_callback_reasons reason,
void *user, void *in, size_t len) {
int n = 0, m;
const char *in_buf = (const char *)in;
unsigned char buf[LWS_SEND_BUFFER_PRE_PADDING + 512 + LWS_SEND_BUFFER_POST_PADDING];
unsigned char *p = &buf[LWS_SEND_BUFFER_PRE_PADDING];
struct per_session_data *data = (struct per_session_data*)user;
switch (reason) {
/* New connection; initialize a game for them. */
case LWS_CALLBACK_ESTABLISHED:
lwsl_info("dotbot_stream_callback: LWS_CALLBACK_ESTABLISHED\n");
init_session_data(data);
break;
/* Calculate a move, update the board, and send back the results. */
case LWS_CALLBACK_SERVER_WRITEABLE:
tick(&n, (char *)p, data);
if (n) {
m = libwebsocket_write(wsi, p, n, LWS_WRITE_TEXT);
if (m < n) {
lwsl_info("client disconnected\n");
return -1;
}
}
break;
case LWS_CALLBACK_RECEIVE:
if (len == 4 && strncmp(in_buf, "next", len) == 0) {
libwebsocket_callback_on_writable(context, wsi);
}
if (strncmp(in_buf, "setGrid:", 8) == 0) {
set_grid(data, in_buf + 8);
}
break;
default:
break;
}
return 0;
}
wrl::constraint::constraint() : mode(0), axis(1), grid(3)
{
pool = ::glob->new_pool();
for (int i = 0; i < 10; ++i)
{
pool->add_node(rot[i] = new ogl::node());
pool->add_node(pos[i] = new ogl::node());
}
rot[0]->add_unit(new ogl::unit("wire/constraint_rot_0.obj"));
rot[0]->add_unit(new ogl::unit("wire/constraint_rot_0.obj"));
rot[1]->add_unit(new ogl::unit("wire/constraint_rot_1.obj"));
rot[2]->add_unit(new ogl::unit("wire/constraint_rot_2.obj"));
rot[3]->add_unit(new ogl::unit("wire/constraint_rot_3.obj"));
rot[4]->add_unit(new ogl::unit("wire/constraint_rot_4.obj"));
rot[5]->add_unit(new ogl::unit("wire/constraint_rot_5.obj"));
rot[6]->add_unit(new ogl::unit("wire/constraint_rot_6.obj"));
rot[7]->add_unit(new ogl::unit("wire/constraint_rot_7.obj"));
rot[8]->add_unit(new ogl::unit("wire/constraint_rot_8.obj"));
rot[9]->add_unit(new ogl::unit("wire/constraint_rot_9.obj"));
pos[0]->add_unit(new ogl::unit("wire/constraint_pos_0.obj"));
pos[1]->add_unit(new ogl::unit("wire/constraint_pos_1.obj"));
pos[2]->add_unit(new ogl::unit("wire/constraint_pos_2.obj"));
pos[3]->add_unit(new ogl::unit("wire/constraint_pos_3.obj"));
pos[4]->add_unit(new ogl::unit("wire/constraint_pos_4.obj"));
pos[5]->add_unit(new ogl::unit("wire/constraint_pos_5.obj"));
pos[6]->add_unit(new ogl::unit("wire/constraint_pos_6.obj"));
pos[7]->add_unit(new ogl::unit("wire/constraint_pos_7.obj"));
pos[8]->add_unit(new ogl::unit("wire/constraint_pos_8.obj"));
pos[9]->add_unit(new ogl::unit("wire/constraint_pos_9.obj"));
set_grid(3);
orient();
}
HangingNodeRefiner_Grid::
~HangingNodeRefiner_Grid()
{
set_grid(NULL);
}
static void tst_tweak_n(CuTest* tc, int run, int GX, int GY) {
double origxy[GX*GY*2];
double xy[GX*GY*2];
double noisyxy[GX*GY*2];
double radec[GX*GY*2];
double gridx[GX];
double gridy[GY];
sip_t thesip;
sip_t* sip = &thesip;
tan_t* tan = &(sip->wcstan);
int i,j;
sip_t* outsip;
printf("\ntest_tweak_%i\n\n", run);
log_init(LOG_VERB);
memset(sip, 0, sizeof(sip_t));
tan->imagew = 2000;
tan->imageh = 2000;
tan->crval[0] = 150;
tan->crval[1] = -30;
tan->crpix[0] = 1000.5;
tan->crpix[1] = 1000.5;
tan->cd[0][0] = 1./1000.;
tan->cd[0][1] = 0;
tan->cd[1][1] = 1./1000.;
tan->cd[1][0] = 0;
sip->a_order = sip->b_order = 2;
sip->a[2][0] = 10.*1e-6;
sip->b[0][2] = -10.*1e-6;
sip->ap_order = sip->bp_order = 4;
sip_compute_inverse_polynomials(sip, 0, 0, 0, 0, 0, 0);
set_grid(GX, GY, tan, sip, origxy, radec, xy, gridx, gridy);
// add noise to observed xy positions.
srand(42);
for (i=0; i<(GX*GY*2); i++) {
noisyxy[i] = xy[i] + gaussian_sample(0.0, 1.0);
}
fprintf(stderr, "from numpy import array\n");
fprintf(stderr, "x0,y0 = %g,%g\n", tan->crpix[0], tan->crpix[1]);
fprintf(stderr, "gridx_%i=array([", run);
for (i=0; i<GX; i++)
fprintf(stderr, "%g, ", gridx[i]);
fprintf(stderr, "])\n");
fprintf(stderr, "gridy_%i=array([", run);
for (i=0; i<GY; i++)
fprintf(stderr, "%g, ", gridy[i]);
fprintf(stderr, "])\n");
fprintf(stderr, "origxy_%i = array([", run);
for (i=0; i<(GX*GY); i++)
fprintf(stderr, "[%g,%g],", origxy[2*i+0], origxy[2*i+1]);
fprintf(stderr, "])\n");
fprintf(stderr, "xy_%i = array([", run);
for (i=0; i<(GX*GY); i++)
fprintf(stderr, "[%g,%g],", xy[2*i+0], xy[2*i+1]);
fprintf(stderr, "])\n");
fprintf(stderr, "noisyxy_%i = array([", run);
for (i=0; i<(GX*GY); i++)
fprintf(stderr, "[%g,%g],", noisyxy[2*i+0], noisyxy[2*i+1]);
fprintf(stderr, "])\n");
fprintf(stderr, "truesip_a_%i = array([", run);
for (i=0; i<=sip->a_order; i++)
for (j=0; j<=sip->a_order; j++)
if (sip->a[i][j] != 0)
fprintf(stderr, "[%i,%i,%g],", i, j, sip->a[i][j]);
fprintf(stderr, "])\n");
fprintf(stderr, "truesip_b_%i = array([", run);
for (i=0; i<=sip->a_order; i++)
for (j=0; j<=sip->a_order; j++)
if (sip->b[i][j] != 0)
fprintf(stderr, "[%i,%i,%g],", i, j, sip->b[i][j]);
fprintf(stderr, "])\n");
fprintf(stderr, "sip_a_%i = {}\n", run);
fprintf(stderr, "sip_b_%i = {}\n", run);
int o;
for (o=2; o<6; o++) {
sip->a_order = o;
outsip = run_test(tc, sip, GX*GY, noisyxy, radec);
fprintf(stderr, "sip_a_%i[%i] = array([", run, o);
for (i=0; i<=outsip->a_order; i++)
for (j=0; j<=outsip->a_order; j++)
if (outsip->a[i][j] != 0)
fprintf(stderr, "[%i,%i,%g],", i, j, outsip->a[i][j]);
fprintf(stderr, "])\n");
fprintf(stderr, "sip_b_%i[%i] = array([", run, o);
for (i=0; i<=outsip->a_order; i++)
for (j=0; j<=outsip->a_order; j++)
if (outsip->b[i][j] != 0)
fprintf(stderr, "[%i,%i,%g],", i, j, outsip->b[i][j]);
fprintf(stderr, "])\n");
}
sip->a_order = 2;
outsip = run_test(tc, sip, GX*GY, noisyxy, radec);
CuAssertDblEquals(tc, tan->crval[0], outsip->wcstan.crval[0], 1e-3);
CuAssertDblEquals(tc, tan->crval[1], outsip->wcstan.crval[1], 1e-3);
CuAssertDblEquals(tc, tan->cd[0][0], outsip->wcstan.cd[0][0], 1e-6);
CuAssertDblEquals(tc, tan->cd[0][1], outsip->wcstan.cd[0][1], 1e-6);
CuAssertDblEquals(tc, tan->cd[1][0], outsip->wcstan.cd[1][0], 1e-6);
CuAssertDblEquals(tc, tan->cd[1][1], outsip->wcstan.cd[1][1], 1e-6);
if (run == 2) {
double *d1, *d2;
d1 = (double*)outsip->a;
d2 = (double*)&(sip->a);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
// rather large error, no?
CuAssertDblEquals(tc, d2[i], d1[i], 6e-7);
d1 = (double*)outsip->b;
d2 = (double*)&(sip->b);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++) {
printf("test_tweak_2, run 2: Expecting %.18g, got %.18g\n", d2[i], d1[i]);
fflush(NULL);
CuAssertDblEquals(tc, d2[i], d1[i], 3e-7);
}
d1 = (double*)outsip->ap;
d2 = (double*)&(sip->ap);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
CuAssertDblEquals(tc, d2[i], d1[i], 1e-6);
d1 = (double*)outsip->bp;
d2 = (double*)&(sip->bp);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
CuAssertDblEquals(tc, d2[i], d1[i], 1e-6);
CuAssertIntEquals(tc, sip->a_order, outsip->a_order);
CuAssertIntEquals(tc, sip->b_order, outsip->b_order);
CuAssertIntEquals(tc, sip->ap_order, outsip->ap_order);
CuAssertIntEquals(tc, sip->bp_order, outsip->bp_order);
} else if (run == 3) {
double *d1, *d2;
d1 = (double*)outsip->a;
d2 = (double*)&(sip->a);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++) {
// rather large error, no?
printf("test_tweak_2, run 3: Expecting %.18g, got %.18g\n", d2[i], d1[i]);
fflush(NULL);
CuAssertDblEquals(tc, d2[i], d1[i], 7e-7);
}
d1 = (double*)outsip->b;
d2 = (double*)&(sip->b);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++) {
printf("test_tweak_2, run 3b: Expecting %.18g, got %.18g\n", d2[i], d1[i]);
fflush(NULL);
CuAssertDblEquals(tc, d2[i], d1[i], 2e-6);
}
d1 = (double*)outsip->ap;
d2 = (double*)&(sip->ap);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
CuAssertDblEquals(tc, d2[i], d1[i], 1e-6);
d1 = (double*)outsip->bp;
d2 = (double*)&(sip->bp);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++) {
printf("test_tweak_2, run 3c: Expecting %.18g, got %.18g\n", d2[i], d1[i]);
fflush(NULL);
CuAssertDblEquals(tc, d2[i], d1[i], 2e-6);
}
CuAssertIntEquals(tc, sip->a_order, outsip->a_order);
CuAssertIntEquals(tc, sip->b_order, outsip->b_order);
CuAssertIntEquals(tc, sip->ap_order, outsip->ap_order);
CuAssertIntEquals(tc, sip->bp_order, outsip->bp_order);
}
}
void test_tweak_1(CuTest* tc) {
int GX = 5;
int GY = 5;
double origxy[GX*GY*2];
double xy[GX*GY*2];
double radec[GX*GY*2];
double gridx[GX];
double gridy[GY];
sip_t thesip;
sip_t* sip = &thesip;
tan_t* tan = &(sip->wcstan);
int i;
sip_t* outsip;
printf("\ntest_tweak_1\n\n");
log_init(LOG_VERB);
memset(sip, 0, sizeof(sip_t));
tan->imagew = 2000;
tan->imageh = 2000;
tan->crval[0] = 150;
tan->crval[1] = -30;
tan->crpix[0] = 1000.5;
tan->crpix[1] = 1000.5;
tan->cd[0][0] = 1./1000.;
tan->cd[0][1] = 0;
tan->cd[1][1] = 1./1000.;
tan->cd[1][0] = 0;
sip->a_order = sip->b_order = 2;
sip->a[2][0] = 10.*1e-6;
sip->ap_order = sip->bp_order = 4;
sip_compute_inverse_polynomials(sip, 0, 0, 0, 0, 0, 0);
/*
printf("After compute_inverse_polynomials:\n");
sip_print_to(sip, stdout);
fflush(NULL);
*/
set_grid(GX, GY, tan, sip, origxy, radec, xy, gridx, gridy);
/*{
int i,j;
printf("RA,Dec\n");
for (i=0; i<GY; i++) {
for (j=0; j<GX; j++) {
fflush(NULL);
printf("gy %i gyx %i: %g %g\n", i, j, radec[2*(i*GX+j)],
radec[2*(i*GX+j) + 1]);
fflush(NULL);
}
}
}*/
outsip = run_test(tc, sip, GX*GY, xy, radec);
CuAssertDblEquals(tc, tan->crval[0], outsip->wcstan.crval[0], 1e-6);
CuAssertDblEquals(tc, tan->crval[1], outsip->wcstan.crval[1], 1e-6);
CuAssertDblEquals(tc, tan->cd[0][0], outsip->wcstan.cd[0][0], 1e-10);
CuAssertDblEquals(tc, tan->cd[0][1], outsip->wcstan.cd[0][1], 1e-14);
CuAssertDblEquals(tc, tan->cd[1][0], outsip->wcstan.cd[1][0], 1e-14);
CuAssertDblEquals(tc, tan->cd[1][1], outsip->wcstan.cd[1][1], 1e-10);
double *d1, *d2;
d1 = (double*)outsip->a;
d2 = (double*)&(sip->a);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
CuAssertDblEquals(tc, d2[i], d1[i], 1e-13);
d1 = (double*)outsip->b;
d2 = (double*)&(sip->b);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++) {
printf("test_tweak_1: Expecting %.18g, got %.18g\n", d2[i], d1[i]);
fflush(NULL);
CuAssertDblEquals(tc, d2[i], d1[i], 3e-18);
}
d1 = (double*)outsip->ap;
d2 = (double*)&(sip->ap);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
CuAssertDblEquals(tc, d2[i], d1[i], 1e-10);
d1 = (double*)outsip->bp;
d2 = (double*)&(sip->bp);
for (i=0; i<(SIP_MAXORDER * SIP_MAXORDER); i++)
CuAssertDblEquals(tc, d2[i], d1[i], 1e-10);
CuAssertIntEquals(tc, sip->a_order, outsip->a_order);
CuAssertIntEquals(tc, sip->b_order, outsip->b_order);
CuAssertIntEquals(tc, sip->ap_order, outsip->ap_order);
CuAssertIntEquals(tc, sip->bp_order, outsip->bp_order);
}
void MultiGridRefiner::grid_to_be_destroyed(Grid* grid)
{
if(m_pMG)
set_grid(NULL);
}
void HangingNodeRefiner_Grid::
grid_to_be_destroyed(Grid* grid)
{
set_grid(NULL);
}
void AdaptiveRegularRefiner_MultiGrid::
assign_grid(MultiGrid& mg)
{
set_grid(&mg);
}
void MultiGridRefiner::assign_grid(MultiGrid& mg)
{
set_grid(&mg);
}
void HangingNodeRefiner_Grid::
assign_grid(Grid& grid)
{
set_grid(&grid);
}
static int set_arf_grid (Isis_Rmf_t *rmf, double *lo, double *hi, unsigned int n) /*{{{*/
{
Client_Data_t *cl = (Client_Data_t *)rmf->client_data;
return set_grid (&cl->arf, lo, hi, n);
}