GeometryGraphOperation::GeometryGraphOperation(const Geometry *g0, const Geometry *g1) {
// use the most precise model for the result
if (g0->getPrecisionModel()->compareTo(g1->getPrecisionModel())>=0)
setComputationPrecision(g0->getPrecisionModel());
else
setComputationPrecision(g1->getPrecisionModel());
arg=new vector<GeometryGraph*>(2);
(*arg)[0]=new GeometryGraph(0,g0);
(*arg)[1]=new GeometryGraph(1, g1);
}
GeometryGraphOperation::GeometryGraphOperation(const Geometry *g0):
arg(1)
{
const PrecisionModel* pm0 = g0->getPrecisionModel();
assert(pm0);
setComputationPrecision(pm0);
arg[0]=new GeometryGraph(0, g0);
}
GeometryGraphOperation::GeometryGraphOperation(const Geometry *g0,
const Geometry *g1,
const algorithm::BoundaryNodeRule& boundaryNodeRule)
:
arg(2)
{
const PrecisionModel* pm0 = g0->getPrecisionModel();
assert(pm0);
const PrecisionModel* pm1 = g1->getPrecisionModel();
assert(pm1);
// use the most precise model for the result
if (pm0->compareTo(pm1) >= 0)
setComputationPrecision(pm0);
else
setComputationPrecision(pm1);
arg[0]=new GeometryGraph(0, g0, boundaryNodeRule);
arg[1]=new GeometryGraph(1, g1, boundaryNodeRule);
}
GeometryGraphOperation::GeometryGraphOperation(const Geometry *g0) {
setComputationPrecision(g0->getPrecisionModel());
arg=new vector<GeometryGraph*>(1);
(*arg)[0]=new GeometryGraph(0,g0);;
}
