void Inference::makeSchema()
{
DimList dims;
for (const auto& name : m_dimVec)
{
const pdal::Dimension::Id id(pdal::Dimension::id(name));
pdal::Dimension::Type t;
try
{
t = pdal::Dimension::defaultType(id);
}
catch (pdal::pdal_error&)
{
t = pdal::Dimension::Type::Double;
}
dims.emplace_back(name, id, t);
}
m_schema = makeUnique<Schema>(dims);
if (const Delta* d = delta())
{
const Bounds cube(m_bounds->cubeify(*d));
m_schema = makeUnique<Schema>(Schema::deltify(cube, *d, *m_schema));
}
}
~Var( void )
{
DimList::iterator dim = m_dims.begin();
DimList::const_iterator last_dim = m_dims.end();
while ( dim != last_dim )
{
if ( *dim ) delete *dim;
dim++;
}
m_dims.clear();
}
const Dim* dim( const std::string name ) const
{
DimList::const_iterator dim = m_dims.begin();
DimList::const_iterator last = m_dims.end();
while ( dim != last )
{
if ( (*dim)->name() == name ) break;
dim++;
}
return( *dim );
}
const Dim* dim( const size_t index ) const
{
DimList::const_iterator dim = m_dims.begin();
DimList::const_iterator last = m_dims.end();
size_t counter = 0;
while ( dim != last )
{
if ( counter++ == index ) break;
dim++;
}
return( *dim );
}
Var( const NcVar* var ):
m_var( var )
{
const int ndims = m_var->num_dims();
for ( int i = 0; i < ndims; i++ )
{
m_dims.push_back( new Dim( m_var->get_dim(i) ) );
}
}
CelledBaseChunkReader::CelledBaseChunkReader(
const Metadata& m,
PointPool& pool,
const arbiter::Endpoint& endpoint)
: BaseChunkReader(m, pool)
{
DimList dims;
dims.push_back(DimInfo("TubeId", "unsigned", 8));
dims.insert(dims.end(), m.schema().dims().begin(), m.schema().dims().end());
const Schema celledSchema(dims);
PointPool celledPool(celledSchema, m.delta());
auto tubedCells(m.storage().deserialize(endpoint, celledPool, m_id));
Data::PooledStack tubedData(celledPool.dataPool());
auto dataNodes(m_pool.dataPool().acquire(tubedCells.size()));
m_cells = m_pool.cellPool().acquire(tubedCells.size());
const std::size_t celledPointSize(celledSchema.pointSize());
const std::size_t tubeIdSize(sizeof(uint64_t));
uint64_t tube(0);
char* tPos(reinterpret_cast<char*>(&tube));
BinaryPointTable table(m.schema());
pdal::PointRef pointRef(table, 0);
for (auto& cell : m_cells)
{
auto tubedCell(tubedCells.popOne());
const char* src(tubedCell->uniqueData());
Data::PooledNode data(dataNodes.popOne());
std::copy(src, src + tubeIdSize, tPos);
std::copy(src + tubeIdSize, src + celledPointSize, *data);
table.setPoint(*data);
cell.set(pointRef, std::move(data));
m_points.at(tube).emplace_back(cell.point(), cell.uniqueData());
tubedData.push(tubedCell->acquire());
}
}
~File( void )
{
if ( m_file ) delete m_file;
DimList::iterator dim = m_dims.begin();
DimList::const_iterator last_dim = m_dims.end();
while ( dim != last_dim )
{
if ( *dim ) delete *dim;
dim++;
}
m_dims.clear();
VarList::iterator var = m_vars.begin();
VarList::const_iterator last_var = m_vars.end();
while ( var != last_var )
{
if ( *var ) delete *var;
var++;
}
m_vars.clear();
}
const bool read( const std::string filename )
{
if ( m_file ) delete m_file;
m_filename = filename;
m_file = new NcFile( filename.c_str(), NcFile::ReadOnly );
if ( !m_file ) return( false );
if ( !m_file->is_valid() ) return( false );
const int ndims = m_file->num_dims();
for ( int i = 0; i < ndims; i++ )
{
m_dims.push_back( new Dim( m_file->get_dim(i) ) );
}
const int nvars = m_file->num_vars();
for ( int i = 0; i < nvars; i++ )
{
m_vars.push_back( new Var( m_file->get_var(i) ) );
}
return( true );
}
const size_t ndims( void ) const
{
return( m_dims.size() );
}
