void sierpinskiiterate(Draw *fractal, SDL_Win *window, Shape current,
int iterations, int limit) {
if (current.size < 2 || iterations == limit) {
draw_sdl(window, fractal, current.x, current.y,
current.size/2, current.rotation, iterations);
return;
}
Shape top, left, right;
float l_angle = fractal->angle - ((2*M_PI)/3.0);
float r_angle = fractal->angle + ((2*M_PI)/3.0);
make_shape(&top, current.x + ((current.size/4)*sin(fractal->angle)),
current.y - ((current.size/4)*cos(fractal->angle)),
current.size / 2, current.height/2, fractal->angle);
make_shape(&left, current.x + ((current.size/4))*sin(l_angle),
current.y - ((current.size/4))*cos(l_angle),
current.size/2, current.height/2, l_angle);
make_shape(&right, current.x + ((current.size/4))*sin(r_angle),
current.y - ((current.size/4))*cos(r_angle),
current.size/2, current.height/2, r_angle);
iterations++;
sierpinskiiterate(fractal, window, top, iterations, limit);
sierpinskiiterate(fractal, window, left, iterations, limit);
sierpinskiiterate(fractal, window, right, iterations, limit);
}
void treeiterate(Draw *fractal, SDL_Win *window, Shape current,
int iterations, int limit, float angle, int bx, int by) {
if(current.size < 2 || iterations == limit) {
return;
}
float newangle;
int cx, cy;
Shape *shapes = malloc(fractal->splits[iterations]*sizeof(Shape));
int newsize = current.size/fractal->splits[iterations];
iterations++;
for(int i=0; i<fractal->splits[iterations]/2; i++) {
newangle = angle - (fractal->anglerange/2.0) +
i*(fractal->anglerange/fractal->splits[iterations]);
cx = bx + ((newsize)*sin(newangle));
cy = by - ((newsize)*cos(newangle));
make_shape(&shapes[i], cx, cy,
newsize,
current.height/fractal->splits[iterations], newangle);
draw_sdl(window, fractal, cx, cy,
newsize,
newangle, iterations);
newangle = angle + (fractal->anglerange/2.0) -
i*(fractal->anglerange/fractal->splits[iterations]);
cx = bx + (sin(newangle)*(newsize));
cy = by - (cos(newangle)*(newsize));
make_shape(&shapes[fractal->splits[iterations]-1-i], cx, cy,
newsize,
current.height/fractal->splits[iterations], newangle);
draw_sdl(window, fractal, cx, cy,
newsize,
newangle, iterations);
}
for(int i=0; i<fractal->splits[iterations]/2; i++) {
newangle = angle - (fractal->anglerange/2.0) +
i*(fractal->anglerange/fractal->splits[iterations]);
treeiterate(fractal, window, shapes[i],
iterations, limit, newangle,
bx + (sin(newangle)*2*newsize),
by - (cos(newangle)*2*newsize));
newangle = angle + (fractal->anglerange/2.0) -
i*(fractal->anglerange/fractal->splits[iterations]);
treeiterate(fractal, window, shapes[fractal->splits[iterations]-1-i],
iterations, limit, newangle,
bx + (sin(newangle)*2*newsize),
by - (cos(newangle)*2*newsize));
}
free(shapes);
return;
}
void stariterate(Draw *fractal, SDL_Win *window, Shape current,
int iterations, int limit, float angle) {
draw_sdl(window, fractal, current.x, current.y,
current.size, angle, iterations);
if(current.size < 1 || iterations == limit) {
return;
}
int x, y;
float newangle;
Shape *shapes = malloc(fractal->splits[iterations]*sizeof(Shape));
iterations++;
for(int i=0; i<fractal->splits[iterations]; i++) {
newangle = ((i*2.0*M_PI)/fractal->splits[iterations]) + fractal->angle;
x = current.x + (current.size*sin(newangle)/sqrt(2));
y = current.y - (current.size*cos(newangle)/sqrt(2));
make_shape(&shapes[i], x, y, current.size/fractal->splits[iterations],
current.height/fractal->splits[iterations], newangle);
stariterate(fractal, window, shapes[i], iterations, limit, newangle);
}
free(shapes);
}
void OpenSpace::initialize()
{
maxProgress(200);
setAllEdges(false);
world().SetGravity(b2Vec2(0, 10));
upper = makePlatform(10, -25);
addProgress(25);
middle = makePlatform(50, -25);
addProgress(25);
auto pd = physicsDimensions();
for(int i = 0; i < 150; ++i)
{
polygonDef def;
def.bodyDef.position.Set(randuniform(pd.x, pd.x + 30), randuniform(-30, pd.y-30));
def.bodyDef.angle = to_radians(randuniform(0, 360));
def.bodyDef.type = b2_dynamicBody;
def.shape.SetAsBox(1, 5);
def.fixtureDef.restitution = 0.5;
def.fixtureDef.density = 4;
bodies.push_back(make_shape(world(), def));
addProgress(1);
}
}
void tree(Draw *fractal, SDL_Win *window, int limit) {
Shape trunk;
make_shape(&trunk,
fractal->startx + ((fractal->size[0]/4)*sin(fractal->angle)),
fractal->starty - ((fractal->size[0]/4)*cos(fractal->angle)),
fractal->size[0]/2, fractal->height[0]/2, fractal->angle);
Shape current = trunk;
int iterations = 1;
for(int i=0; i<10; i++) {
fractal->splits[i] = 2;
}
fractal->anglerange = 1;
draw_sdl(window, fractal, current.x, current.y,
current.size/fractal->splits[0], fractal->angle, iterations);
int bx= current.x + ((current.size*sin(fractal->angle))/fractal->splits[0]);
int by= current.y - ((current.size*cos(fractal->angle))/fractal->splits[0]);
treeiterate(fractal, window, current, iterations, limit,
fractal->angle, bx, by);
SDL_RenderPresent(window->renderer);
SDL_UpdateWindowSurface(window->win);
}
auto inverse(const tensor_base<ET, tensor_shape<ST, MT, NT>, T> &A,
bool *succeed = nullptr) {
assert(A.cols() == A.rows());
blas_int n = (blas_int)A.rows();
assert(n > 0);
blas_int lda = n;
auto Adata = A.t().eval();
std::vector<blas_int> ipiv(n);
blas_int info = 0;
// lu factorization
lapack::getrf(&n, &n, Adata.ptr(), &lda, ipiv.data(), &info);
if (succeed) {
*succeed = info == 0;
}
if (info == 0) {
blas_int lwork = n;
vecx_<ET> work(make_shape(lwork));
// inverse
lapack::getri(&n, Adata.ptr(), &lda, ipiv.data(), work.ptr(), &lwork,
&info);
if (succeed) {
*succeed = info == 0;
}
}
return std::move(Adata).t();
}
void Flat::initialize()
{
const int num_things = 75;
maxProgress(num_things * 3);
for(int i = 0; i < num_things; ++i)
{
polygonDef def;
def.bodyDef.position.Set(randuniform(50, 100), randuniform(0, 80));
def.bodyDef.angle = 0;
def.bodyDef.fixedRotation = true;
def.bodyDef.type = b2_dynamicBody;
def.shape.SetAsBox(1*1.2, 5*1.2);
def.fixtureDef.density = 1;
(make_shape(back1, def));
addProgress(1);
}
for(int i = 0; i < num_things; ++i)
{
polygonDef def;
def.bodyDef.position.Set(randuniform(50, 100), randuniform(0, 80));
def.bodyDef.angle = to_radians(randuniform(0, 360));
def.bodyDef.type = b2_dynamicBody;
def.shape.SetAsBox(1, 5);
def.fixtureDef.density = 1;
(make_shape(back2, def));
addProgress(1);
}
for(int i = 0; i < num_things; ++i)
{
polygonDef def;
def.bodyDef.position.Set(randuniform(50, 100), randuniform(0, 80));
def.bodyDef.angle = 0;
def.bodyDef.fixedRotation = true;
def.bodyDef.type = b2_dynamicBody;
def.shape.SetAsBox(1*0.8, 5*0.8);
def.fixtureDef.density = 1;
(make_shape(back3, def));
addProgress(1);
}
}
void sierpinski(Draw *fractal, SDL_Win *window, int limit) {
Shape shape;
make_shape(&shape, fractal->startx, fractal->starty, fractal->size[0],
fractal->height[0], fractal->angle);
int iterations = 1; //One iteration is just the shape.
sierpinskiiterate(fractal, window, shape, iterations, limit);
SDL_RenderPresent(window->renderer);
SDL_UpdateWindowSurface(window->win);
}
b2Body* OpenSpace::makePlatform(float ycenter, float angle)
{
auto pd = physicsDimensions();
polygonDef def;
def.bodyDef.position.Set(pd.x, ycenter);
def.bodyDef.type = b2_staticBody;
def.bodyDef.angle = to_radians(angle);
def.bodyDef.fixedRotation = true;
def.shape.SetAsBox(pd.x-40, 2);
def.fixtureDef.density = 1;
def.fixtureDef.friction = 0.4;
return make_shape(world(), def);
}
// Generic Fourier test function for different ranks
template <int TARGET_RANK> void test_fourier(statistic_enum statistic) {
double precision = 1e-8;
triqs::clef::placeholder<0> iw_;
double beta = 10;
int N_iw = 1000;
int N_tau = 10000;
double E = -1;
mini_vector<size_t, TARGET_RANK> shape{};
if constexpr (TARGET_RANK == 2) // Matrix_valued
shape = make_shape(2, 2);
else if constexpr (TARGET_RANK == 3) // Tensor_valued<3>
auto solve(const tensor_base<ET, tensor_shape<ST1, MT1, NT1>, T1> &A,
const tensor_base<ET, tensor_shape<ST2, MT2, NT2>, T2> &B,
bool *succeed = nullptr) {
char trans = 'N'; // 'T' if is transposed
blas_int m = (blas_int)A.rows();
blas_int n = (blas_int)A.cols();
assert(m > 0 && n > 0);
blas_int lda = m;
// Adata: lda x n
auto Adata = A.t().eval();
assert(m == B.rows());
blas_int nrhs = (blas_int)B.cols();
blas_int ldb = max(1, m, n);
// Bdata: ldb x nrhs
tensor<ET, tensor_shape<size_t, size_t, size_t>> Bdata;
if (ldb == m) {
Bdata = B.t();
} else {
Bdata =
cat_at(const_index<0>(), B.derived(), zeros(make_shape(ldb - m, nrhs)))
.t();
}
// work
blas_int lwork = max(1, min(m, n) + max(min(m, n), nrhs) * 1);
vecx_<ET> work(make_shape(lwork));
blas_int info = 0;
lapack::gels(&trans, &m, &n, &nrhs, Adata.ptr(), &lda, Bdata.ptr(), &ldb,
work.ptr(), &lwork, &info);
if (succeed) {
*succeed = info == 0;
}
return std::move(Bdata).t().block(iota(n), iota(tags::length));
}
void TreeSystem::make_ground(
float thickness,
float base_angle,
float delta_angle,
const sf::Color& base_color,
const ColorTransform& deltas)
{
const float density_factor = 1.5;
const float block_w = 5;
const float block_h = 1;
const float block_area = block_w * block_h;
const float underground_depth = 5;
auto phys = physicsDimensions();
auto phys2 = physicsHalfDimensions();
const float area = (thickness + underground_depth) * phys.x;
const unsigned density = (area * density_factor) / block_area;
blocks.reserve(blocks.size() + density + 1);
polygonDef def;
def.bodyDef.active = false;
def.bodyDef.fixedRotation = true;
def.bodyDef.type = b2_staticBody;
def.shape.SetAsBox(phys2.x, thickness/2);
def.bodyDef.angle = 0;
def.bodyDef.position.Set(phys2.x, phys.y - (thickness/2));
blocks.emplace_back(
make_shape(world(), def),
base_color);
def.shape.SetAsBox(block_w, block_h);
addProgress(1);
const b2Vec2 topLeft(0, phys.y - thickness);
const b2Vec2 bottomRight(phys.x, phys.y + underground_depth);
maxProgress(blocks.size() + density + 1);
setProgress(blocks.size());
for(int i = 0; i < density; ++i)
{
def.bodyDef.position = random_in(topLeft, bottomRight);
def.bodyDef.angle = to_radians(randcentered(base_angle, delta_angle));
add_block(def, deltas.apply(base_color));
addProgress(1);
}
}
TEST(Array, Create) {
array<long, 2> A;
A.resize(make_shape(3, 3));
EXPECT_EQ(A.shape(), (mini_vector<size_t, 2>{3, 3}));
matrix<double> M;
M.resize(3, 3);
EXPECT_EQ(M.shape(), (mini_vector<size_t, 2>{3, 3}));
vector<double> V;
V.resize(10);
EXPECT_EQ(V.shape(), (mini_vector<size_t, 1>{10}));
}
void star(Draw *fractal, SDL_Win *window, int limit) {
Shape centre;
make_shape(¢re, fractal->startx, fractal->starty,
fractal->size[0]/2, fractal->height[0]/2, fractal->angle);
int iterations = 1;
for(int i=0; i<10; i++) {
fractal->splits[i] = 6;
}
stariterate(fractal, window, centre, iterations, limit, fractal->angle);
SDL_RenderPresent(window->renderer);
SDL_UpdateWindowSurface(window->win);
}
verdict test_randomized()
{
#if !defined(NO_RANDOMIZATION)
srand (unsigned(get_time_stamp()/get_frequency())); // Randomize pseudo random number generator
#endif
std::cout << "=================== Randomized Test ===================" << std::endl;
size_t a1 = 0, a2 = 0;
std::vector<long long> mediansV(K); // Final verdict of medians for each of the K experiments with visitors
std::vector<long long> mediansM(K); // Final verdict of medians for each of the K experiments with matching
std::vector<long long> timingsV(M);
std::vector<long long> timingsM(M);
std::vector<Shape*> shapes(N);
for (size_t k = 0; k < K; ++k)
{
for (size_t i = 0; i < N; ++i)
shapes[i] = make_shape(rand());
run_timings(shapes, timingsV, timingsM, a1, a2);
mediansV[k] = display("AreaVisRnd", timingsV);
mediansM[k] = display("AreaMatRnd", timingsM);
std::cout << "\t\t" << verdict(mediansV[k], mediansM[k]) << std::endl;
for (size_t i = 0; i < N; ++i)
{
delete shapes[i];
shapes[i] = 0;
}
}
if (a1 != a2)
{
std::cout << "ERROR: Invariant " << a1 << "==" << a2 << " doesn't hold." << std::endl;
exit(42);
}
std::sort(mediansV.begin(), mediansV.end());
std::sort(mediansM.begin(), mediansM.end());
return verdict(mediansV[K/2],mediansM[K/2]);
}
verdict test_repetitive()
{
std::cout << "=================== Repetitive Test ===================" << std::endl;
size_t a1 = 0, a2 = 0;
std::vector<long long> mediansV(K); // Final verdict of medians for each of the K experiments with visitors
std::vector<long long> mediansM(K); // Final verdict of medians for each of the K experiments with matching
std::vector<long long> timingsV(M);
std::vector<long long> timingsM(M);
std::vector<Shape*> shapes(N);
for (size_t k = 0; k < K; ++k)
{
for (size_t i = 0; i < N; ++i)
shapes[i] = make_shape((k+i)*2-k-2*i);
run_timings(shapes, timingsV, timingsM, a1, a2);
mediansV[k] = display("AreaVisRep", timingsV);
mediansM[k] = display("AreaMatRep", timingsM);
std::cout << "\t\t" << verdict(mediansV[k], mediansM[k]) << std::endl;
for (size_t i = 0; i < N; ++i)
{
delete shapes[i];
shapes[i] = 0;
}
}
if (a1 != a2)
{
std::cout << "ERROR: Invariant " << a1 << "==" << a2 << " doesn't hold." << std::endl;
exit(42);
}
std::sort(mediansV.begin(), mediansV.end());
std::sort(mediansM.begin(), mediansM.end());
return verdict(mediansV[K/2],mediansM[K/2]);
}
template <class... Ts, class... TTs> constexpr auto _cart_prod(TTs &&... tts) {
using shape_t = decltype(make_shape(tts.numel()...));
return cart_prod_result<
std::tuple<typename _get_value_type_helper<TTs>::type...>, shape_t,
TTs...>(std::forward<TTs>(tts)...);
}
constexpr decltype(auto)
_shape_of_cart_prod_result_seq(CartProdT &cp,
const const_ints<size_t, Is...> &) {
return make_shape(std::get<Is>(cp.inputs).numel()...);
}
// Generic Fourier test function for different ranks
template <int TARGET_RANK> void test_fourier(statistic_enum statistic) {
double precision = 1e-8;
triqs::clef::placeholder<0> iw_;
double beta = 10;
int N_iw = 1000;
int N_tau = 10000;
double E = -1;
mini_vector<size_t, TARGET_RANK> shape{};
if constexpr (TARGET_RANK == 2) // Matrix_valued
shape = make_shape(2, 2);
else if constexpr (TARGET_RANK == 3) // Tensor_valued<3>
shape = make_shape(2, 2, 2);
else if constexpr (TARGET_RANK == 4) // Tensor_valued<4>
shape = make_shape(2, 2, 2, 2);
using target_t = typename _target_from_type_rank<dcomplex, TARGET_RANK>::type;
// === Test a Green function with a Single Pole ===
auto Gw1 = gf<imfreq, target_t>{{beta, statistic, N_iw}, shape};
Gw1(iw_) << 1 / (iw_ - E) + 1 / (iw_ + 2 * E) - 4.5 / (iw_ - 1.25 * E);
auto Gt1 = gf<imtime, target_t>{{beta, statistic, N_tau}, shape};
Gt1() = fourier(Gw1);
///verification that TF(TF^-1)=Id
auto Gw1b = gf<imfreq, target_t>{{beta, statistic, N_iw}, shape};
int
main(int argc, char *argv[])
{
int opt;
size_t i;
const char *argv0 = argv[0];
struct rt_wdb *fd_out;
struct bu_vls vls_in = BU_VLS_INIT_ZERO;
struct bu_vls vls_out = BU_VLS_INIT_ZERO;
int opt_debug = 0;
int opt_verbose = 0;
/* shapelib vars */
SHPHandle shapefile;
size_t shp_num_invalid = 0;
int shp_num_entities = 0;
int shp_type = 0;
/* intentionally double for scan */
double shp_min[4] = HINIT_ZERO;
double shp_max[4] = HINIT_ZERO;
/* geometry */
point2d_t *verts = NULL;
size_t num_verts = 0;
if (argc < 2) {
usage(argv0);
bu_exit(1, NULL);
}
while ((opt = bu_getopt(argc, argv, "dxv")) != -1) {
switch (opt) {
case 'd':
opt_debug = 1;
break;
case 'x':
sscanf(bu_optarg, "%x", (unsigned int *) &RTG.debug);
bu_printb("librt RT_G_DEBUG", RT_G_DEBUG, DEBUG_FORMAT);
bu_log("\n");
break;
case 'v':
opt_verbose++;
break;
default:
usage(argv0);
bu_exit(1, NULL);
break;
}
}
argv += bu_optind;
argc -= bu_optind;
if (opt_verbose)
bu_log("Verbose output enabled.\n");
if (opt_debug)
bu_log("Debugging output enabled.\n");
/* validate input/output file specifiers */
if (argc < 1) {
usage(argv0);
bu_exit(1, "ERROR: Missing input and output file names\n");
}
bu_vls_strcat(&vls_in, argv[0]);
if (argc < 2) {
bu_vls_printf(&vls_out, "%s.g", argv[0]);
} else {
bu_vls_strcat(&vls_out, argv[1]);
}
if (opt_verbose) {
bu_log("Reading from [%s]\n", bu_vls_addr(&vls_in));
bu_log("Writing to [%s]\n\n", bu_vls_addr(&vls_out));
}
/* initialize single threaded resource */
rt_init_resource(&rt_uniresource, 0, NULL);
/* open the input */
shapefile = SHPOpen(bu_vls_addr(&vls_in), "rb");
if (!shapefile) {
bu_log("ERROR: Unable to open shapefile [%s]\n", bu_vls_addr(&vls_in));
bu_vls_free(&vls_in);
bu_vls_free(&vls_out);
bu_exit(4, NULL); }
/* print shapefile details */
if (opt_verbose) {
SHPGetInfo(shapefile, &shp_num_entities, &shp_type, shp_min, shp_max);
bu_log("Shapefile Type: %s\n", SHPTypeName(shp_type));
bu_log("# of Shapes: %d\n\n", shp_num_entities);
bu_log("File Bounds: (%12.3f,%12.3f, %.3g, %.3g)\n"
" to (%12.3f,%12.3f, %.3g, %.3g)\n",
shp_min[0], shp_min[1], shp_min[2], shp_min[3],
shp_max[0], shp_max[1], shp_max[2], shp_max[3]);
}
/* open the .g for writing */
if ((fd_out = wdb_fopen(bu_vls_addr(&vls_out))) == NULL) {
bu_log("ERROR: Unable to open shapefile [%s]\n", bu_vls_addr(&vls_out));
bu_vls_free(&vls_in);
bu_vls_free(&vls_out);
perror(argv0);
bu_exit(5, NULL);
}
/* iterate over all entities */
for (i=0; i < (size_t)shp_num_entities; i++) {
SHPObject *object;
int shp_part;
size_t j;
object = SHPReadObject(shapefile, i);
if (!object) {
if (opt_debug)
bu_log("Shape %zu of %zu is missing, skipping.\n", i+1, (size_t)shp_num_entities);
continue;
}
/* validate the object */
if (opt_debug) {
int shp_altered = SHPRewindObject(shapefile, object);
if (shp_altered > 0) {
bu_log("WARNING: Shape %zu of %zu has [%d] bad loop orientations.\n", i+1, (size_t)shp_num_entities, shp_altered);
shp_num_invalid++;
}
}
/* print detail header */
if (opt_verbose) {
if (object->bMeasureIsUsed) {
bu_log("\nShape:%zu (%s) nVertices=%d, nParts=%d\n"
" Bounds:(%12.3f,%12.3f, %g, %g)\n"
" to (%12.3f,%12.3f, %g, %g)\n",
i+1, SHPTypeName(object->nSHPType), object->nVertices, object->nParts,
object->dfXMin, object->dfYMin, object->dfZMin, object->dfMMin,
object->dfXMax, object->dfYMax, object->dfZMax, object->dfMMax);
} else {
bu_log("\nShape:%zu (%s) nVertices=%d, nParts=%d\n"
" Bounds:(%12.3f,%12.3f, %g)\n"
" to (%12.3f,%12.3f, %g)\n",
i+1, SHPTypeName(object->nSHPType), object->nVertices, object->nParts,
object->dfXMin, object->dfYMin, object->dfZMin,
object->dfXMax, object->dfYMax, object->dfZMax);
}
if (object->nParts > 0 && object->panPartStart[0] != 0) {
if (opt_debug)
bu_log("Shape %zu of %zu: panPartStart[0] = %d, not zero as expected.\n", i+1, (size_t)shp_num_entities, object->panPartStart[0]);
continue;
}
}
num_verts = 0;
verts = (point2d_t *)bu_calloc((size_t)object->nVertices, sizeof(point2d_t), "alloc point array");
for (j = 0, shp_part = 1; j < (size_t)object->nVertices; j++) {
if (shp_part < object->nParts
&& j == (size_t)object->panPartStart[shp_part]) {
shp_part++;
bu_log("Shape %zu of %zu: End of Loop\n", i+1, (size_t)shp_num_entities);
make_shape(fd_out, opt_verbose, opt_debug, i, num_verts, verts);
/* reset for next loop */
memset(verts, 0, sizeof(point2d_t) * object->nVertices);
num_verts = 0;
}
bu_log("%zu/%zu:%zu/%zu\t\t", i+1, (size_t)shp_num_entities, j+1, (size_t)object->nVertices);
bu_log("(%12.4f, %12.4f, %12.4f, %g)\n", object->padfX[j], object->padfY[j], object->padfZ[j], object->padfM[j]);
V2SET(verts[num_verts], object->padfX[j], object->padfY[j]);
num_verts++;
}
bu_log("Shape %zu of %zu: End of Loop\n", i+1, (size_t)shp_num_entities);
make_shape(fd_out, opt_verbose, opt_debug, i, num_verts, verts);
bu_free(verts, "free point array");
verts = NULL;
num_verts = 0;
SHPDestroyObject(object);
object = NULL;
}
if (opt_verbose) {
if (shp_num_invalid > 0) {
bu_log("WARNING: %zu of %zu shape(s) had bad loop orientations.\n", shp_num_invalid, (size_t)shp_num_entities);
}
bu_log("\nDone.\n");
}
/* close up our files */
SHPClose(shapefile);
wdb_close(fd_out);
/* free up allocated resources */
bu_vls_free(&vls_in);
bu_vls_free(&vls_out);
return 0;
}
array_view<V, sizeof...(I), Opt> reinterpret (array<V,R,Opt,To> const & a, I ... index) {
return { {make_shape(index...)}, a.storage() };
}
int
main(int argc, char** argv)
{
SWFMovie mo;
SWFMovieClip dejagnuclip;
SWFMorph morph;
SWFShape startShape, endShape;
SWFDisplayItem it;
float ratio;
const char *srcdir=".";
if ( argc>1 )
srcdir=argv[1];
else
{
fprintf(stderr, "Usage: %s <mediadir>\n", argv[0]);
return 1;
}
Ming_init();
mo = newSWFMovieWithVersion(OUTPUT_VERSION);
SWFMovie_setDimension(mo, 800, 600);
SWFMovie_setRate (mo, 1.0);
// _root.frame1
dejagnuclip = get_dejagnu_clip((SWFBlock)get_default_font(srcdir), 10, 0, 0, 800, 600);
SWFMovie_add(mo, (SWFBlock)dejagnuclip);
SWFMovie_nextFrame(mo);
// _root.frame2, define and place a morph
morph = newSWFMorphShape();
startShape = SWFMorph_getShape1(morph);
make_shape(startShape, 0, 0, 100, 100, 255, 0 ,0);
endShape = SWFMorph_getShape2(morph);
make_shape(endShape, 700, 500, 100, 100, 0, 255 ,0);
it = SWFMovie_add(mo, (SWFBlock)morph);
SWFMovie_nextFrame(mo);
// update the morph with different ratios
for(ratio=0.2; ratio<1.01; ratio+=0.2)
{
SWFDisplayItem_remove(it);
it = SWFMovie_add(mo, (SWFBlock)morph);
SWFDisplayItem_setRatio(it, ratio);
SWFMovie_nextFrame(mo);
}
/* Test for #39989 by adding an empty morph shape. */
morph = newSWFMorphShape();
startShape = SWFMorph_getShape1(morph);
endShape = SWFMorph_getShape2(morph);
it = SWFMovie_add(mo, (SWFBlock)morph);
SWFMovie_nextFrame(mo);
//Output movie
puts("Saving " OUTPUT_FILENAME );
SWFMovie_save(mo, OUTPUT_FILENAME);
return 0;
}
std::conditional_t<A::is_const, array_const_view<typename A::value_type, A::rank + 2>, array_view<typename A::value_type, A::rank + 2>>
reinterpret_array_add_1x1(A const &d) {
auto &imap = d.indexmap();
typename array_view<typename A::value_type, A::rank + 2>::indexmap_type index_map(join(imap.lengths(), make_shape(1, 1)),
join(imap.strides(), make_shape(1, 1)), imap.start_shift());
return {index_map, d.storage()};
};
//------------------------------------------------------------------------------
// Name: GraphNode
// Desc:
//------------------------------------------------------------------------------
GraphNode::GraphNode(const GraphWidget *graph, node_t *node) : QGraphicsPathItem(make_shape(node)), name(QString::fromUtf8(agnameof(node))), graph_(graph) {
draw_label(ND_label(node));
}
array_view<V, sizeof...(I), Opt,indexmaps::mem_layout::c_order(sizeof...(I))> reinterpret_array_view (array_view<V,R,Opt,To,B> const & a, I ... index) {
if (!has_contiguous_data(a)) TRIQS_RUNTIME_ERROR << "reinterpretation failure : data of the view are not contiguous";
return { {make_shape(index...)}, a.storage() };
}
tail_impl(int N1, int N2, int size_, int order_min)
: omin(order_min), _mask(arrays::make_shape(N1, N2)), _data(make_shape(size_, N1, N2)) {
_mask() = order_min + size_ - 1;
_data() = 0;
}