// Copy vector from builtin backend.
static boost::shared_ptr<vector>
copy_vector(typename builtin<real>::vector const &x, const params &prm)
{
precondition(!prm.context().empty(), "Empty VexCL context!");
return boost::make_shared<vector>(prm.context(), x);
}
//////////////////////////////////////////////////////////////////
// fastuidraw::gl::GlyphAtlasGL methods
fastuidraw::gl::GlyphAtlasGL::
GlyphAtlasGL(const params &P):
GlyphAtlas(TexelStoreGL::create(P.texel_store_dimensions(), P.delayed()),
GeometryStoreGL::create(P.number_floats(), P.delayed(), P.alignment()))
{
m_d = FASTUIDRAWnew GlyphAtlasGLPrivate(P);
}
// Create vector of the specified size.
static boost::shared_ptr<vector>
create_vector(size_t size, const params &prm)
{
precondition(!prm.context().empty(), "Empty VexCL context!");
return boost::make_shared<vector>(prm.context(), size);
}
wrapper(size_t n, params prm = params(),
const backend_params &bprm = backend_params(),
const InnerProduct &inner_product = InnerProduct()
)
: s(prm.get("type", runtime::solver::bicgstab)), handle(0)
{
if (!prm.erase("type")) AMGCL_PARAM_MISSING("type");
switch(s) {
#define AMGCL_RUNTIME_SOLVER(type) \
case type: \
handle = static_cast<void*>(new amgcl::solver::type<Backend, InnerProduct>(n, prm, bprm, inner_product)); \
break
AMGCL_RUNTIME_SOLVER(cg);
AMGCL_RUNTIME_SOLVER(bicgstab);
AMGCL_RUNTIME_SOLVER(bicgstabl);
AMGCL_RUNTIME_SOLVER(gmres);
AMGCL_RUNTIME_SOLVER(lgmres);
AMGCL_RUNTIME_SOLVER(fgmres);
AMGCL_RUNTIME_SOLVER(idrs);
#undef AMGCL_RUNTIME_SOLVER
default:
throw std::invalid_argument("Unsupported solver type");
}
}
int ctable_factory_base::setup(int dfd, const char * name, const params & config, dtype::ctype key_type)
{
istr base;
params base_config;
if(!config.get("base", &base) || !config.get("base_config", &base_config))
return NULL;
return setup(base, dfd, name, base_config, key_type);
}
params loadParams(const std::string& filename, params& p) {
CSVInput input(filename);
CSVHeader header(filename);
p.setInput(input);
p.setHeader(header);
return p;
}
lemon_interface(const params &p) {
state_ = ::ParseAlloc(&pooled::tracked_byte_alloc);
if (p.trace()) {
#if NERVE_TRACE_PARSER
::ParseTrace(stdout, detail::parse_trace_prefix);
#endif
}
context_ = p.context();
}
preconditioner(
const Matrix &A,
params prm = params(),
const backend_params &bprm = backend_params())
: _class(prm.get("class", runtime::precond_class::amg)),
handle(0)
{
if (!prm.erase("class")) AMGCL_PARAM_MISSING("class");
switch(_class) {
case precond_class::amg:
{
typedef
runtime::amg<Backend>
Precond;
handle = static_cast<void*>(new Precond(A, prm, bprm));
}
break;
case precond_class::relaxation:
{
typedef
runtime::relaxation::as_preconditioner<Backend>
Precond;
handle = static_cast<void*>(new Precond(A, prm, bprm));
}
break;
case precond_class::dummy:
{
typedef
amgcl::preconditioner::dummy<Backend>
Precond;
handle = static_cast<void*>(new Precond(A, prm, bprm));
}
break;
case precond_class::nested:
{
typedef
make_solver<
preconditioner,
runtime::iterative_solver<Backend>
>
Precond;
handle = static_cast<void*>(new Precond(A, prm, bprm));
}
break;
default:
throw std::invalid_argument("Unsupported preconditioner class");
}
}
int exist_dtable::create(int dfd, const char * file, const params & config, dtable::iter * source, const ktable * shadow)
{
int e_dfd, r;
params base_config, dnebase_config;
const dtable_factory * base = dtable_factory::lookup(config, "base");
const dtable_factory * dnebase = dtable_factory::lookup(config, "dnebase");
if(!base || !dnebase)
return -ENOENT;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
if(!config.get("dnebase_config", &dnebase_config, params()))
return -EINVAL;
if(!source_shadow_ok(source, shadow))
return -EINVAL;
r = mkdirat(dfd, file, 0755);
if(r < 0)
return r;
e_dfd = openat(dfd, file, O_RDONLY);
if(e_dfd < 0)
goto fail_open;
/* just to be sure */
source->first();
{
dtable_skip_iter<dne_skip_test> base_source(source);
r = base->create(e_dfd, "base", base_config, &base_source, NULL);
if(r < 0)
goto fail_base;
}
source->first();
{
full_ktable full_shadow(source);
nonshadow_skip_test skip_test(shadow);
dtable_skip_iter<nonshadow_skip_test> dnebase_source(source, skip_test);
r = dnebase->create(e_dfd, "dnebase", dnebase_config, &dnebase_source, &full_shadow);
if(r < 0)
goto fail_dnebase;
}
close(e_dfd);
return 0;
fail_dnebase:
util::rm_r(e_dfd, "base");
fail_base:
close(e_dfd);
fail_open:
unlinkat(dfd, file, AT_REMOVEDIR);
return (r < 0) ? r : -1;
}
int deltaint_dtable::init(int dfd, const char * file, const params & config, sys_journal * sysj)
{
const dtable_factory * base_factory;
const dtable_factory * ref_factory;
params base_config, ref_config;
int di_dfd;
if(base)
deinit();
base_factory = dtable_factory::lookup(config, "base");
ref_factory = dtable_factory::lookup(config, "ref");
if(!base_factory || !ref_factory)
return -ENOENT;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
if(!config.get("ref_config", &ref_config, params()))
return -EINVAL;
di_dfd = openat(dfd, file, O_RDONLY);
if(di_dfd < 0)
return di_dfd;
base = base_factory->open(di_dfd, "base", base_config, sysj);
if(!base)
goto fail_base;
reference = ref_factory->open(di_dfd, "ref", ref_config, sysj);
if(!reference)
goto fail_reference;
ktype = base->key_type();
cmp_name = base->get_cmp_name();
assert(ktype == reference->key_type());
scan_iter = base->iterator();
if(!scan_iter)
goto fail_scan;
ref_iter = reference->iterator();
if(!ref_iter)
goto fail_iter;
close(di_dfd);
return 0;
fail_iter:
delete scan_iter;
scan_iter = NULL;
fail_scan:
reference->destroy();
reference = NULL;
fail_reference:
base->destroy();
base = NULL;
fail_base:
close(di_dfd);
return -1;
}
// Copy matrix from builtin backend.
static boost::shared_ptr<matrix>
copy_matrix(boost::shared_ptr< typename builtin<real>::matrix > A, const params &prm)
{
precondition(!prm.context().empty(), "Empty VexCL context!");
const typename builtin<real>::matrix &a = *A;
BOOST_AUTO(Aptr, a.ptr_data());
BOOST_AUTO(Acol, a.col_data());
BOOST_AUTO(Aval, a.val_data());
return boost::make_shared<matrix>(prm.context(), rows(*A), cols(*A), Aptr, Acol, Aval);
}
amg(
const Matrix &A,
const params &prm = params(),
const backend_params &backend_prm = backend_params()
)
: coarsening(prm.get("coarsening.type", runtime::coarsening::smoothed_aggregation)),
relaxation(prm.get("relaxation.type", runtime::relaxation::spai0)),
handle(0)
{
runtime::detail::process_amg<Backend>(
coarsening, relaxation,
runtime::detail::amg_create<Backend, Matrix>(handle, A, prm, backend_prm)
);
}
int exception_dtable::init(int dfd, const char * file, const params & config, sys_journal * sysj)
{
const dtable_factory * base_factory;
const dtable_factory * alt_factory;
params base_config, alt_config;
int excp_dfd;
if(base || alt)
deinit();
base_factory = dtable_factory::lookup(config, "base");
alt_factory = dtable_factory::lookup(config, "alt");
if(!base_factory || !alt_factory)
return -EINVAL;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
if(!config.get("alt_config", &alt_config, params()))
return -EINVAL;
if(!config.get_blob_or_string("reject_value", &reject_value))
return -EINVAL;
/* the reject value must exist, because nonexistent values
* can get pruned out if the shadow does not require them */
if(!reject_value.exists())
return -EINVAL;
excp_dfd = openat(dfd, file, O_RDONLY);
if(excp_dfd < 0)
return excp_dfd;
base = base_factory->open(excp_dfd, "base", base_config, sysj);
if(!base)
goto fail_base;
alt = alt_factory->open(excp_dfd, "alt", alt_config, sysj);
if(!alt)
goto fail_alt;
ktype = base->key_type();
if(ktype != alt->key_type())
goto fail_ktype;
cmp_name = base->get_cmp_name();
close(excp_dfd);
return 0;
fail_ktype:
alt->destroy();
alt = NULL;
fail_alt:
base->destroy();
base = NULL;
fail_base:
close(excp_dfd);
return -1;
}
void read_dem_header ( image<short> & dem )
{
char file[1000];
GDALDataset *df;
GDALRasterBand *bd;
double trans[6];
int rows, cols;
strcpy ( file, p.value("dem_file").c_str());
if ( strlen(file) == 0 ) {
fprintf(stderr,"Need to specify a dem file\n");
exit(1);
}
df = (GDALDataset *) GDALOpen( file, GA_ReadOnly );
if( df == NULL ) {
fprintf(stderr,"Could not open dem file: %s\n", file );
exit(1);
}
rows = df->GetRasterYSize();
cols = df->GetRasterXSize();
dem.create(rows,cols);
if( df->GetGeoTransform( trans ) == CE_None ) {
dem_east = trans[0];
dem_north = trans[3];
dem_wid = trans[1];
} else {
fprintf(stderr,"Dem file: %s has no geographic metadata\n", file );
exit(1);
}
delete df;
}
inline void read(const FileNode& node, params &x, const params & default_value = params())
{
if(node.empty())
x = default_value;
else
x.read(node);
}
int btree_dtable::init(int dfd, const char * file, const params & config, sys_journal * sysj)
{
const dtable_factory * factory;
params base_config;
int r, bt_dfd;
if(base)
deinit();
factory = dtable_factory::lookup(config, "base");
if(!factory)
return -ENOENT;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
if(!factory->indexed_access(base_config))
return -ENOSYS;
bt_dfd = openat(dfd, file, O_RDONLY);
if(bt_dfd < 0)
return bt_dfd;
base = factory->open(bt_dfd, "base", base_config, sysj);
if(!base)
goto fail_base;
ktype = base->key_type();
assert(ktype == dtype::UINT32);
cmp_name = base->get_cmp_name();
/* open the btree */
btree = rofile::open<BTREE_PAGE_KB, 8>(bt_dfd, "btree");
if(!btree)
goto fail_open;
r = btree->read_type(0, &header);
if(r < 0)
goto fail_format;
/* check the header */
if(header.magic != BTREE_DTABLE_MAGIC || header.version != BTREE_DTABLE_VERSION)
goto fail_format;
if(header.page_size != BTREE_PAGE_SIZE || header.pageno_size != BTREE_PAGENO_SIZE)
goto fail_format;
if(header.key_size != BTREE_KEY_SIZE || header.index_size != BTREE_INDEX_SIZE)
goto fail_format;
/* 1 -> uint32, and even with an empty table there will be a root page */
if(header.key_type != 1 || !header.root_page)
goto fail_format;
close(bt_dfd);
return 0;
fail_format:
delete btree;
fail_open:
base->destroy();
base = NULL;
fail_base:
close(bt_dfd);
return -1;
}
int simple_stable::create(int dfd, const char * name, const params & config, dtype::ctype key_type)
{
int md_dfd, r;
params meta_config, data_config;
const dtable_factory * meta = dtable_factory::lookup(config, "meta");
const ctable_factory * data = ctable_factory::lookup(config, "data");
if(!meta || !data)
return -ENOENT;
if(!config.get("meta_config", &meta_config, params()))
return -EINVAL;
if(!config.get("data_config", &data_config, params()))
return -EINVAL;
r = mkdirat(dfd, name, 0755);
if(r < 0)
return r;
md_dfd = openat(dfd, name, O_RDONLY);
if(md_dfd < 0)
{
r = md_dfd;
goto fail_open;
}
/* the metadata is keyed by named properties (strings) */
r = meta->create(md_dfd, "st_meta", meta_config, dtype::STRING);
if(r < 0)
goto fail_meta;
r = data->create(md_dfd, "st_data", data_config, key_type);
if(r < 0)
goto fail_data;
close(md_dfd);
return 0;
fail_data:
util::rm_r(md_dfd, "st_meta");
fail_meta:
close(md_dfd);
fail_open:
unlinkat(dfd, name, AT_REMOVEDIR);
return r;
}
int simple_stable::init(int dfd, const char * name, const params & config, sys_journal * sysj)
{
int r = -1;
params meta_config, data_config;
const dtable_factory * meta = dtable_factory::lookup(config, "meta");
const ctable_factory * data = ctable_factory::lookup(config, "data");
if(md_dfd >= 0)
deinit();
assert(column_map.empty());
if(!meta || !data)
return -ENOENT;
if(!config.get("meta_config", &meta_config, params()))
return -EINVAL;
if(!config.get("data_config", &data_config, params()))
return -EINVAL;
md_dfd = openat(dfd, name, O_RDONLY);
if(md_dfd < 0)
return md_dfd;
dt_meta = meta->open(md_dfd, "st_meta", meta_config, sysj);
if(!dt_meta)
goto fail_meta;
ct_data = data->open(md_dfd, "st_data", data_config, sysj);
if(!ct_data)
goto fail_data;
/* check sanity? */
r = load_columns();
if(r < 0)
goto fail_check;
return 0;
fail_check:
delete ct_data;
fail_data:
dt_meta->destroy();
fail_meta:
close(md_dfd);
md_dfd = -1;
return r;
}
wrapper(const amgcl::mpi::distributed_matrix<Backend> &A,
params prm, const backend_params &bprm = backend_params())
: r(prm.get("type", runtime::relaxation::spai0)), handle(0)
{
if (!prm.erase("type")) AMGCL_PARAM_MISSING("type");
switch(r) {
#define AMGCL_RELAX_DISTR(type) \
case runtime::relaxation::type: \
handle = static_cast<void*>(new amgcl::mpi::relaxation::type<Backend>(A, prm, bprm)); \
break
#define AMGCL_RELAX_LOCAL_DISTR(type) \
case runtime::relaxation::type: \
handle = call_constructor<amgcl::relaxation::type>(A, prm, bprm); \
break;
#define AMGCL_RELAX_LOCAL_LOCAL(type) \
case runtime::relaxation::type: \
handle = call_constructor<amgcl::relaxation::type>(*A.local(), prm, bprm); \
break;
AMGCL_RELAX_DISTR(spai0);
AMGCL_RELAX_LOCAL_DISTR(chebyshev);
AMGCL_RELAX_LOCAL_LOCAL(damped_jacobi);
AMGCL_RELAX_LOCAL_LOCAL(ilu0);
AMGCL_RELAX_LOCAL_LOCAL(iluk);
AMGCL_RELAX_LOCAL_LOCAL(ilut);
AMGCL_RELAX_LOCAL_LOCAL(spai1);
AMGCL_RELAX_LOCAL_LOCAL(gauss_seidel);
#undef AMGCL_RELAX_LOCAL_LOCAL
#undef AMGCL_RELAX_LOCAL_DISTR
#undef AMGCL_RELAX_DISTR
default:
throw std::invalid_argument("Unsupported relaxation type");
}
}
int cache_dtable::init(int dfd, const char * file, const params & config, sys_journal * sysj)
{
int r;
const dtable_factory * factory;
params base_config;
if(base)
deinit();
if(!config.get("cache_size", &r, 0) || r < 0)
return -EINVAL;
cache_size = r;
factory = dtable_factory::lookup(config, "base");
if(!factory)
return -EINVAL;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
base = factory->open(dfd, file, base_config, sysj);
if(!base)
return -1;
ktype = base->key_type();
cmp_name = base->get_cmp_name();
return 0;
}
int btree_dtable::create(int dfd, const char * file, const params & config, dtable::iter * source, const ktable * shadow)
{
int bt_dfd, r;
params base_config;
dtable * base_dtable;
const dtable_factory * base = dtable_factory::lookup(config, "base");
if(!base)
return -ENOENT;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
if(!base->indexed_access(base_config))
return -ENOSYS;
if(!source_shadow_ok(source, shadow))
return -EINVAL;
r = mkdirat(dfd, file, 0755);
if(r < 0)
return r;
bt_dfd = openat(dfd, file, O_RDONLY);
if(bt_dfd < 0)
goto fail_open;
r = base->create(bt_dfd, "base", base_config, source, shadow);
if(r < 0)
goto fail_create;
base_dtable = base->open(bt_dfd, "base", base_config, NULL);
if(!base_dtable)
goto fail_reopen;
r = write_btree(bt_dfd, "btree", base_dtable);
if(r < 0)
goto fail_write;
base_dtable->destroy();
close(bt_dfd);
return 0;
fail_write:
base_dtable->destroy();
fail_reopen:
util::rm_r(bt_dfd, "base");
fail_create:
close(bt_dfd);
fail_open:
unlinkat(dfd, file, AT_REMOVEDIR);
return (r < 0) ? r : -1;
}
int keydiv_dtable::load_dividers(const params & config, size_t dt_count, divider_list * list, bool skip_check)
{
std::vector<T> data;
if(!config.get_seq("divider_", NULL, 0, true, &data))
return -1;
/* if there are n dtables, there should be n - 1 dividers */
if(dt_count && data.size() != dt_count - 1)
return -EINVAL;
list->clear();
for(size_t i = 0; i < data.size(); i++)
list->push_back(dtype((C) data[i]));
/* dividers should be in increasing order, but we can't check blobs
* since they might need a comparator that we don't have yet */
if(!skip_check)
for(size_t i = 1; i < list->size(); i++)
if((*list)[i - 1].compare((*list)[i]) >= 0)
return -EINVAL;
return 0;
}
void run(params<T> p, multi_array<T,2> in) {
vex::stopwatch<> w;
auto prof = make_shared<vex::profiler<>>(vex::current_context().queue());
try {
auto c = p.runner();
if(profile) c->profiler = prof;
c->run(in);
for(size_t i = 0 ; i < runs ; i++) {
w.tic();
in = c->run(in);
w.toc();
}
} catch(...) {}
if(profile) {
cout << *prof << endl;
} else {
cout << '\t';
if(w.tics() > 0) cout << w.average();
else cout << "nan";
}
}
void read_image_file(image<short> & img)
{
double camera_roll, camera_pitch, camera_yaw;
FILE *fp;
rgb_image rgb, *q;
double east, north, alt;
img_map::iterator i;
vec3 utm(0,0,0), x(1,0,0), y(0,1,0), z(0,0,1);
mat4 trans, roll, pitch, yaw;
camera_roll = p.dvalue("camera_roll");
camera_pitch = p.dvalue("camera_pitch");
camera_yaw = p.dvalue("camera_yaw");
fp = fopen ( p.value("images_file").c_str(), "r" );
if ( !fp ) {
fprintf(stderr,"Could not open images file: %s\n",
p.value("images_file").c_str() );
exit(1);
}
xy[0][0] = -2*img.rows;
xy[0][1] = -2*img.cols;
while ( rgb.read_params(fp) ) {
if ( rgb.id > max_img_id ) max_img_id = rgb.id;
imgs[rgb.id] = rgb;
}
fclose(fp);
img_indices = new int[max_img_id+1];
sea_level = p.dvalue("sea_level");
i = imgs.begin();
while ( i != imgs.end() ) {
q = &i->second;
q->create_image(input_rows,input_cols);
//printf("%s\n", q->pathname.c_str());
//printf("%d %10.2f %10.2f %7.2f %7.2f %7.2f %7.2f\n",p->id,
//p->east, p->north, p->alt,
//p->omega, p->phi, p->kappa );
img_indices[img_ct] = q->id;
img_ct++;
utm[0]=q->east;
utm[1]=q->north;
trans = translation3D(utm);
pitch = rotation3D ( x, q->omega);
roll = rotation3D ( y, q->phi);
yaw = rotation3D ( z, q->kappa);
q->M = pitch;
q->M = q->M * roll;
q->M = q->M * yaw;
q->zrot = -1.0 * z;
q->zrot = q->M * q->zrot;
q->M = trans;
q->M = q->M * pitch;
q->M = q->M * roll;
q->M = q->M * yaw;
q->MI = q->M.inverse();
q->unit_depth = p.dvalue("focal_length")*1000.0/p.dvalue("pixel_size");
q->cam = utm;
q->cam[2] = 0;
i++;
}
}
void set_defaults()
{
p.set("images_file", "centers" );
p.set("easting_left", "379000.0" );
p.set("easting_right", "382500.0" );
p.set("northing_top", "2938000.0" );
p.set("northing_bottom", "2937000.0" );
p.set("utm_zone", "17" );
p.set("output_cell_size", "5.0" );
p.set("input_cell_size", "0.2" );
p.set("input_rows", "1200" );
p.set("input_columns", "1600" );
p.set("output_file", "rgb.tif");
p.set("dist_file", "");
p.set("blob_file", "");
p.set("overviews", "3" );
p.set("focal_length", "16.065" );
p.set("pixel_size", "7.4" );
p.set("readers", "2" );
p.set("writers", "2" );
p.set("mappers", "2" );
}
int main ( int argc, char **argv )
{
int i, j, n, pid, t;
double pix;
double ir, ic;
int req, task, value;
char task_name[16];
log_start();
if ( argc < 2 ) {
fprintf(stderr,"Usage: %s param_file\n", argv[0]);
exit(1);
}
pe.mq = msgget ( getpid(), 0777|IPC_CREAT );
set_defaults();
p.read_file(argv[1]);
GDALAllRegister();
east1 = p.dvalue("easting_left");
east2 = p.dvalue("easting_right");
north1 = p.dvalue("northing_bottom");
north2 = p.dvalue("northing_top");
wid = p.dvalue("output_cell_size");
pix = p.dvalue("input_cell_size");
ir = p.dvalue("input_rows");
ic = p.dvalue("input_columns");
input_rows = (int)ir;
input_cols = (int)ic;
max_dist = 1.2 * pix * sqrt(ir*ir+ic*ic) / wid;
max_dist_2 = max_dist/2;
max_dist = max_dist * max_dist;
readers = p.ivalue("readers");
mappers = p.ivalue("mappers");
writers = p.ivalue("writers");
rows = int((north2 - north1) / wid);
cols = int((east2 - east1) / wid);
cindex = new int[cols];
dist.create(rows,cols);
img.create(rows,cols);
srand(time(NULL));
read_image_file(img);
fill ( img, dist, 0, rows );
//spread_dist ( img, dist );
//if ( p.value("dist_file") != "" ) output_dist_geotiff ( dist, v );
//if ( p.value("blob_file") != "" ) output_pcolor_geotiff ( img, dist, v );
sort ( img_indices, img_indices+img_ct, comp_row );
valid_img = new int[max_img_id];
for ( i = 0; i < img_ct; i++ ) {
j = img_indices[i];
valid_img[j] = 0;
if ( xy[j][0]+max_dist_2 >= 0 && xy[j][0]-max_dist_2 < rows ) {
pe.add_task ( "image", j );
}
}
read_dem_header(dem);
pe.launch ( dem_reader );
out.create_image(rows,cols);
for ( i = 0; i < out.rows; i += bs ) pe.add_task ( "mapper", i );
for ( i = 0; i < readers; i++ ) {
pe.launch ( reader );
}
for ( i = 0; i < mappers; i++ ) {
pe.launch ( mapper );
}
for ( i = 0; i < writers; i++ ) {
pe.launch ( writer );
}
while ( pe.children > 0 ) {
t = msgrcv ( pe.mq, &pe.msg, MSG_SIZE, 1, 0 );
if ( t < 0 ) perror("");
sscanf(pe.msg.s,"%d %d %s %d", &req, &pid, task_name, &value );
switch ( req ) {
case EXIT:
log("exit %d",pid);
pe.children--;
break;
case WAIT:
if ( pe.ready(task_name,value) ) {
sprintf(pe.msg.s,"1");
pe.msg.t = pid;
//printf("Sending %d task %d\n",pid,task);
log("wait %d %s %d",pid,task_name,value);
t = msgsnd ( pe.mq, &pe.msg, MSG_SIZE, 0 );
} else {
log("sleep %d %s %d",pid,task_name,value);
pe.enqueue ( task_name, value, pid );
}
break;
case TASK:
task = pe.fetch_task(task_name);
log("task %d %s %d",pid,task_name,task);
sprintf(pe.msg.s,"%d",task);
pe.msg.t = pid;
//printf("Sending %d task %d\n",pid,task);
t = msgsnd ( pe.mq, &pe.msg, MSG_SIZE, 0 );
break;
case REPORT:
log("complete %d %s %d",pid,task_name,value);
pe.complete ( task_name, value );
break;
}
}
msgctl(pe.mq,IPC_RMID,NULL);
dump_log();
return 0;
}
void map_block ( int row1 )
{
int current = -1;
int j, r, c, dr, dc, jr, jc;
int n=0;
rgb_image rgb, *q;
double max_north, north, min_east, east;
double dt, db, dx, dy, ddx, ddy, elev;
double it, ib, ix, iy, dix, diy;
double scale;
double row_offset, column_offset;
char s[2];
int br, bc, brlim, bclim;
vec3 pt, diff;
img_map::iterator i;
int block = -1;
rgb.rows = 0;
row_offset = p.dvalue("row_offset");
column_offset = p.dvalue("column_offset");
max_north = p.dvalue("northing_top");
min_east = p.dvalue("easting_left");
r = row1;
brlim = r + bs;
if ( brlim > img.rows ) brlim = img.rows;
fill(img,dist,r,brlim);
//printf("%d filled\n",getpid());
spread_dist(img,dist,r,brlim);
//printf("%d spread\n",getpid());
for ( c = 0; c < img.cols; c += bs ) {
for ( br = r; br < brlim; br++ ) {
bclim = c + bs;
if ( bclim > img.cols ) bclim = img.cols;
north = max_north - br * wid;
dy = (dem_north - north) / dem_wid;
dr = int(dy + 0.5);
ddy = dy - int(dy);
if ( dr < 0 || dr >= dem.rows ) {
//printf("dem north %g, wid %g; north %g, dy %g\n",
//dem_north, dem_wid, north, dy );
fprintf(stderr,"Dem row %d out of range for row %d\n", dr, r );
exit(1);
}
for ( bc = c; bc < bclim; bc++ ) {
if ( img[br][bc] < 1 ) continue;
east = min_east + bc*wid;
if ( img[br][bc] != current ) {
current = img[br][bc];
//printf("%d %d switching to %d after %d pixels\n",
//br, bc, current, n );
n = 1;
rgb = imgs[current];
if ( !valid_img[current] ) {
pe.wait_for ( "image", current );
valid_img[current] = 1;
}
rgb.used = 1;
imgs[current] = rgb;
}
n++;
dx = (east - dem_east) / dem_wid;
dc = int(dx + 0.5);
ddx = dx - int(dx);
if ( dc < 0 || dc >= dem.cols ) {
fprintf(stderr,"Dem column %d out of range for column %d\n",
dc, c );
exit(1);
}
if ( dc == 0 || dr == 0 ||
dc == dem.cols-1 || dr == dem.rows-1 ) {
elev = -rgb.alt + dem[dr][dc];
} else {
dr = (int)dy;
dc = (int)dx;
dt = (1.0-ddx)*dem[dr][dc] + ddx*dem[dr][dc+1];
db = (1.0-ddx)*dem[dr+1][dc] + ddx*dem[dr+1][dc+1];
elev = -rgb.alt + (1.0-ddy)*dt + ddy*db;
}
pt[0] = east;
pt[1] = north;
pt[2] = elev;
//diff = pt - rgb.cam;
//printf("pt %8g %12.8g %g, cam %8g %12.8g %g, zrot %g %g %g\n",
//pt[0], pt[1], pt[2], rgb.cam[0], rgb.cam[1], rgb.cam[2],
//rgb.zrot[0], rgb.zrot[1], rgb.zrot[2] );
//dist = diff.length();
//dist = diff * rgb.zrot;
//scale = rgb.alt / dist;
//printf("%d %d %d %d, cam %g, elev %g, dist %gm scale %g\n",
//br,bc,dr,dc, rgb.cam.n[2], elev, dist, scale);
//pt = scale * pt + (1-scale)*rgb.cam;
pt = rgb.MI * pt;
scale = -rgb.unit_depth / pt[2];
pt = scale * pt;
iy = rgb.rows - 1 - (pt[1]+rgb.rows/2+row_offset);
jr = int(iy+0.5);
ix = int(pt[0]+rgb.cols/2+column_offset+0.5);
jc = int(ix+0.5);
//printf("scale %g, jr %g, jc %g, %g\n",
//scale, pt[1]+600, pt[0]+800, pt[2] );
if ( jr >= 0 && jr < rgb.rows && jc >= 0 && jc < rgb.cols){
if ( jr == 0 || jc == 0 ||
jr == rgb.rows - 1 || jc == rgb.cols - 1 ) {
out.img[0][br][bc] = rgb.img[0][jr][jc];
out.img[1][br][bc] = rgb.img[1][jr][jc];
out.img[2][br][bc] = rgb.img[2][jr][jc];
} else {
jr = int(iy);
jc = int(ix);
diy = iy - jr;
dix = ix - jc;
for ( j = 0; j < 3; j++ ) {
it = (1.0-dix)*rgb.img[j][jr][jc] +
dix * rgb.img[j][jr][jc+1];
ib = (1.0-dix)*rgb.img[j][jr+1][jc] +
dix * rgb.img[j][jr+1][jc+1];
out.img[j][br][bc] = int((1.0-diy)*it +
diy*ib + 0.5);
}
}
}
}
}
}
rgb.rows = 0;
rgb.img[0].data = 0;
rgb.img[1].data = 0;
rgb.img[2].data = 0;
}
void output_geotiff ( rgb_image & out )
{
int i, r, c;
int val;
char s[2];
OGRSpatialReference ref;
GDALDataset *df;
char *wkt = NULL;
GDALRasterBand *bd;
double trans[6];
GDALDriver *gt;
char **options = NULL;
int ov[] = { 2, 4, 8, 16, 32 };
int nov;
int n;
int bands[] = { 1, 2, 3 };
char file[1000];
int block, ir, rows;
options = CSLSetNameValue ( options, "TILED", "NO" );
options = CSLSetNameValue ( options, "BLOCKXSIZE", "256" );
options = CSLSetNameValue ( options, "BLOCKYSIZE", "256" );
options = CSLSetNameValue ( options, "COMPRESS", "LZW" );
gt = GetGDALDriverManager()->GetDriverByName("GTiff");
if ( !gt ) {
fprintf(stderr,"Could not get GTiff driver\n");
exit(1);
}
strcpy ( file, p.value("output_file").c_str() );
df = gt->Create( file, out.cols, out.rows, 3, GDT_Byte, options );
if( df == NULL ) {
fprintf(stderr,"Could not create %s\n", file );
exit(1);
}
trans[0] = p.dvalue("easting_left");
trans[1] = p.dvalue("output_cell_size");
trans[2] = 0.0;
trans[3] = p.dvalue("northing_top");
trans[4] = 0.0;
trans[5] = -p.dvalue("output_cell_size");
df->SetGeoTransform ( trans );
ref.SetUTM ( p.ivalue("utm_zone") );
ref.SetWellKnownGeogCS ( "NAD27" );
ref.exportToWkt ( &wkt );
df->SetProjection(wkt);
CPLFree ( wkt );
for ( ir = 0; ir < out.rows; ir += bs ) {
rows = out.rows - ir;
if ( rows > bs ) rows = bs;
//printf("Writer waiting for %d\n",ir );
pe.wait_for("data",ir);
for ( i = 0; i < 3; i++ ) {
bd = df->GetRasterBand(i+1);
bd->RasterIO( GF_Write, 0, ir, out.cols, rows,
out.img[i].data+ir*out.cols,
out.cols, rows, GDT_Byte, 0, 0 );
}
}
delete df;
df = (GDALDataset *)GDALOpen ( file, GA_Update );
if( df == NULL ) {
fprintf(stderr,"Could not open for update %s\n", file );
exit(1);
}
nov = p.ivalue("overviews");
if ( nov > 5 ) nov = 5;
if ( nov > 0 ) {
df->BuildOverviews("NEAREST", nov, ov, 3, bands, NULL, NULL );
}
}
void output_dist_geotiff ( image<float> & dist, image<unsigned char> & v )
{
int r, c;
int val;
OGRSpatialReference ref;
GDALDataset *df;
char *wkt = NULL;
GDALRasterBand *bd;
double trans[6];
GDALDriver *gt;
char **options = NULL;
int ov[] = { 2, 4, 8, 16, 32 };
int nov;
int n;
char file[1000];
options = CSLSetNameValue ( options, "TILED", "NO" );
options = CSLSetNameValue ( options, "COMPRESS", "LZW" );
gt = GetGDALDriverManager()->GetDriverByName("GTiff");
if ( !gt ) {
fprintf(stderr,"Could not get GTiff driver\n");
exit(1);
}
strcpy ( file, p.value("dist_file").c_str() );
df = gt->Create( file, dist.cols, dist.rows, 1, GDT_Byte, options );
if( df == NULL ) {
fprintf(stderr,"Could not create %s\n", file );
exit(1);
}
trans[0] = p.dvalue("easting_left");
trans[1] = p.dvalue("output_cell_size");
trans[2] = 0.0;
trans[3] = p.dvalue("northing_top");
trans[4] = 0.0;
trans[5] = -p.dvalue("output_cell_size");
df->SetGeoTransform ( trans );
ref.SetUTM ( p.ivalue("utm_zone") );
ref.SetWellKnownGeogCS ( "NAD27" );
ref.exportToWkt ( &wkt );
df->SetProjection(wkt);
CPLFree ( wkt );
for ( r=0; r < dist.rows; r++ ) {
for ( c=0; c < dist.cols; c++ ) {
val = int(sqrt(dist[r][c])+0.5);
if ( val > 255 ) val = 255;
v[r][c] = val;
}
}
bd = df->GetRasterBand(1);
bd->RasterIO( GF_Write, 0, 0, v.cols, v.rows, v.data,
v.cols, v.rows, GDT_Byte, 0, 0 );
delete df;
df = (GDALDataset *)GDALOpen ( file, GA_Update );
if( df == NULL ) {
fprintf(stderr,"Could not open for update %s\n", file );
exit(1);
}
nov = p.ivalue("overviews");
if ( nov > 5 ) nov = 5;
if ( nov > 0 ) {
n = 1;
df->BuildOverviews("NEAREST", nov, ov, 1, &n, NULL, NULL );
}
}
int simple_ctable::create(int dfd, const char * file, const params & config, dtype::ctype key_type)
{
int ct_dfd, columns, r;
params base_config;
std::set<istr, strcmp_less> names;
ctable_header meta;
rwfile meta_file;
const dtable_factory * base = dtable_factory::lookup(config, "base");
if(!base)
return -ENOENT;
if(!config.get("base_config", &base_config, params()))
return -EINVAL;
if(!config.get("columns", &columns, 0))
return -EINVAL;
if(columns < 1)
return -EINVAL;
/* check that we have all the names */
for(int i = 0; i < columns; i++)
{
char string[32];
istr column_name;
sprintf(string, "column%d_name", i);
if(!config.get(string, &column_name) || !column_name)
return -EINVAL;
if(names.count(column_name))
return -EEXIST;
names.insert(column_name);
}
names.clear();
r = mkdirat(dfd, file, 0755);
if(r < 0)
return r;
ct_dfd = openat(dfd, file, O_RDONLY);
if(ct_dfd < 0)
goto fail_open;
meta.magic = SIMPLE_CTABLE_MAGIC;
meta.version = SIMPLE_CTABLE_VERSION;
meta.columns = columns;
r = meta_file.create(ct_dfd, "sct_meta");
if(r < 0)
goto fail_meta;
r = meta_file.append(&meta);
if(r < 0)
goto fail_create;
/* record column names */
for(int i = 0; i < columns; i++)
{
uint32_t length;
char string[32];
istr column_name;
sprintf(string, "column%d_name", i);
r = config.get(string, &column_name);
assert(r && column_name);
length = column_name.length();
r = meta_file.append(&length);
if(r < 0)
goto fail_create;
r = meta_file.append(column_name);
if(r < 0)
goto fail_create;
}
r = base->create(ct_dfd, "base", base_config, key_type);
if(r < 0)
goto fail_create;
meta_file.close();
close(ct_dfd);
return 0;
fail_create:
meta_file.close();
unlinkat(dfd, "sct_meta", 0);
fail_meta:
close(ct_dfd);
fail_open:
unlinkat(dfd, file, AT_REMOVEDIR);
return -1;
}