23 os <<
"DDD in memory stats:" << std::endl <<
"====================" << std::endl << std::endl;
34 int noLog(0), noSol(0), noMat(0), noRot(0);
37 int noCLog(0), noCSol(0), noCMat(0), noCRot(0);
42 const auto&
g = cpv.
graph();
50 for (; it !=
g.end(); ++it) {
52 noEdges += it->size();
57 lpst_type::iterator lpstit = lpst.begin();
58 for (; lpstit != lpst.end(); ++lpstit) {
59 noCLog += lpstit->first.name().size();
65 mast_type::iterator mastit = mast.begin();
66 for (; mastit != mast.end(); ++mastit) {
67 noCMat += mastit->first.name().size();
73 sost_type::iterator sostit = sost.begin();
74 for (; sostit != sost.end(); ++sostit) {
75 noCSol += sostit->first.name().size();
77 noSolidP +=
s.parameters().size();
83 rost_type::iterator rostit = rost.begin();
84 for (; rostit != rost.end(); ++rostit) {
85 noCRot += rostit->first.name().size();
90 std::cout <<
"sizeof(void*)=" <<
sizeof(
void*) << std::endl;
94 int store = 4 *
sizeof(
void*);
96 int bySol = noSolidP *
sizeof(double) + noSol * store;
97 int byMat = noMat * (5 *
sizeof(double) + store);
99 int byNam = noCLog + noCSol + noCMat + noCRot;
101 int byGra = (noEdges + noNodes) * store;
102 int bytes = byRot + bySol + byMat + byPos + byNam + byLog + byGra;
104 double mb = 1024. * 1024.;
106 os <<
"noNodes=" << noNodes << std::endl
107 <<
"noEdges=" << noEdges << std::endl
108 <<
"noExNod=" << noExpNodes << std::endl
110 os <<
"noLog=" << noLog << std::endl
111 <<
"noSol=" << noSol <<
" noSolidP=" << noSolidP << std::endl
112 <<
"noMat=" << noMat << std::endl
113 <<
"noRot=" << noRot << std::endl
115 os <<
"noCLog=" << noCLog << std::endl
116 <<
"noCSol=" << noCSol << std::endl
117 <<
"noCMat=" << noCMat << std::endl
118 <<
"noCRot=" << noCRot << std::endl
119 <<
" --------" << std::endl
120 <<
" " << byNam <<
" chars used for naming." << std::endl
122 os <<
"byLog = " << byLog / mb <<
" logicalparts " << std::endl
123 <<
"byNam = " << byNam / mb <<
" string for names " << std::endl
124 <<
"byRot = " << byRot / mb <<
" rotations " << std::endl
125 <<
"bySol = " << bySol / mb <<
" solids " << std::endl
126 <<
"byMat = " << byMat / mb <<
" materials " << std::endl
127 <<
"byPos = " << byPos / mb <<
" posparts " << std::endl
128 <<
"byGra = " << byGra / mb <<
" graph-struct " << std::endl
129 <<
"-----------------------" << std::endl
130 <<
"OVERALL: " << bytes / mb <<
" MByte" << std::endl;
Relative position of a child-volume inside a parent-volume.
DDMaterial is used to define and access material information.
Compact representation of the geometrical detector hierarchy.
The Signals That Services Can Subscribe To This is based on ActivityRegistry and is current per Services can connect to the signals distributed by the ActivityRegistry in order to monitor the activity of the application Each possible callback has some defined which we here list in angle e g
A DDSolid represents the shape of a part.
Represents a uniquely identifyable rotation matrix.
static value_type & instance()
ROOT::Math::Rotation3D DDRotationMatrix
A DDRotationMatrix is currently implemented with a ROOT Rotation3D.
A DDLogicalPart aggregates information concerning material, solid and sensitveness ...
const Graph & graph() const
Provides read-only access to the data structure of the compact-view.
Provides an exploded view of the detector (tree-view)
ROOT::Math::DisplacementVector3D< ROOT::Math::Cartesian3D< double > > DDTranslation