if (qs.size() < 2)
throw std::invalid_argument(Exception(String("joint waypoint text file must contain at least 2 'waypoint' vectors")));
init(qs,times,deltas);
}
else { // output
std::ostringstream out;
// comment header
out << "# Joint waypoint trajectory [joint positions & times (at-end)]" << std::endl;
out << "# the following line should be 'absolute' for absolute qi's & t values or 'relative' if the vectors represent inter-waypoint deltas dqi's & dt" << std::endl;
out << "absolute" << std::endl; // not "relative"
out << "# q0 q1 ... qn t" << std::endl;
std::ostream::fmtflags savedFlags = out.setf(std::ios_base::dec | std::ios_base::right);
Int savedPrec = out.precision(10);
Int savedWidth = out.width(13);
const Int dof=qs[0].size();
// this is a hack, as under gcc the flags don't appear to stay set after an output op (!?)
#define setflags \
out.setf(std::ios_base::dec | std::ios_base::right); \
out.precision(10); \
out.width(13);
setflags;
for(Int i=0; i<qs.size(); i++) {
Vector q(qs[i]);
Time t(times[i]);
//____________________________________________________________________
int geometry_tpc_v5() {
gROOT->LoadMacro("$VMCWORKDIR/macro/mpd/geometry/mpdshape.class.C");
gROOT->LoadClass("Mpdshape");
const char* filename = "tpc_v5.geo";
// output file
f = new ofstream(filename, ios::out | ios::trunc);
// streams
std::ostringstream points, position, rotation;
points.setf(ios::showpoint); points.setf(ios::fixed);
points << setprecision(6);
position.setf(ios::showpoint); position.setf(ios::fixed);
position << setprecision(6);
rotation.setf(ios::showpoint); rotation.setf(ios::fixed);
rotation << setprecision(6);
// create full tpc volume
Fill_TUBE(tpc_z, TpcInnRad, TpcOutRad);
// std::cout << points.str() << endl;
Mpdshape* tube = new Mpdshape(f, "tpcChamber1", "cave", "TUBE",
"air", points.str());
tube->SetSegment(0);
tube->DumpToFile();
build_wall("In", TpcInnRad);
build_wall("Out", TpcOutRad - wall_thickness);
delete tube;
// ===========================================================
// make TPC membrane
Clear();
Double_t xWidth,yWidth,zWidth,kx,my,kz,phi_cent;
// make membrane
zWidth = mem_thick;
Fill_TUBE(zWidth, TpcInnRad + wall_thickness, TpcOutRad - wall_thickness);
Mpdshape* membrane = new Mpdshape(f, "tpc01mb", "tpcChamber1", "TUBE",
"rohacellhf71", points.str());
membrane->SetPosition(0., 0., 0.);
membrane->DumpToFile();
#ifdef SENSIT
// ===========================================================
// TPC sensitive volume
// make half of sensitive volume
zWidth = .5*(tpc_drift_z - mem_thick);
Fill_TUBE(zWidth, TpcInnRad + wall_thickness, TpcOutRad - wall_thickness);
Mpdshape* tpchalf = new Mpdshape(f, "tpc01mod", "tpcChamber1", "TUBE",
"air", points.str());
tpchalf->SetSegment(1);
tpchalf->SetPosition(0., 0., tpc_drift_z - zWidth);
tpchalf->SetRotation(" 1. 0. 0. 0. 1. 0. 0. 0. 1.");
tpchalf->DumpWithIncrement();
// make field cage
FieldCage(zWidth);
// make sectors
internal_sector();
// second half sens vol
tpchalf->SetPosition(0., 0., -tpc_drift_z + zWidth);
tpchalf->SetRotation(" 1. 0. 0. 0. 1. 0. 0. 0. -1.");
tpchalf->DumpToFile();
#endif
#ifdef ENDCAP
// ===========================================================
// Begin EndCap
// ===========================================================
zWidth =.5*(tpc_z - tpc_drift_z);
Fill_TUBE(zWidth, TpcInnRad, TpcOutRad);
// endcap
Mpdshape* tpcendcap = new Mpdshape(f, "tpc01ec", "tpcChamber1", "TUBE",
"air", points.str());
tpcendcap->SetSegment(1);
Double_t z_ec = zWidth + tpc_drift_z;
tpcendcap->SetPosition(0., 0., z_ec);
tpcendcap->SetRotation(" 1. 0. 0. 0. 1. 0. 0. 0. 1.");
tpcendcap->DumpWithIncrement();
//============================================================
// Flanches
//============================================================
// al flanch outer
Fill_TUBE(.5*flanch_thickness, outer_flanch_in_rad, TpcOutRad);
Mpdshape* flanch = new Mpdshape(f, "tpc01of", "tpc01ec#1", "TUBE",
"aluminium", points.str());
flanch->SetPosition(0., 0., .5*flanch_thickness - zWidth );
flanch->DumpToFile();
// al flanch inner South
Fill_TUBE(.5*flanch_thickness, TpcInnRad, inner_flanch_out_rad);
flanch->SetVolumeName("tpc01if");
flanch->SetMedia("aluminium");
flanch->SetPoints(points.str());
flanch->DumpToFile();
// ========== Ribs ============================
xWidth = 0.5*rib_width_x; // x - half-dimension of block
yWidth = .5*(TMath::Sqrt(TpcOutRad*TpcOutRad - xWidth*xWidth) -
TpcInnRad); // y - half-dimension of block
zWidth = .5*rib_width_z; // z - half-dimension of block
kz = flanch_thickness + rib_pos_z - zWidth;
// tpc ribs
Fill_BOX(xWidth, yWidth, zWidth);
Mpdshape* tpcrib = new Mpdshape(f, "tpc01Rib", "tpc01ec#1", "BOX", "aluminium",
points.str(), position.str());
tpcrib->SetSegment(1);
Double_t center_rad = TpcInnRad + yWidth;
// cout << "center_rad_rib: " << center_rad << "\n";
for (Int_t k = 0; k < Nsect; k++) {
phi_cent = k*phi_step + .5*phi_step;
Double_t kx = center_rad* TMath::Cos(phi_cent);
Double_t my = center_rad* TMath::Sin(phi_cent);
Double_t zRot = step*k - 90. + .5*step;
tpcrib->SetPosition(kx, my, kz);
tpcrib->SetRotation(zRot, 0.0, .0);
tpcrib->DumpWithIncrement();
}
external_sector();
// second end-cup:
tpcendcap->SetPosition(0., 0., -z_ec);
tpcendcap->SetRotation(" 1. 0. 0. 0. 1. 0. 0. 0. -1.");
tpcendcap->DumpToFile();
#endif
// close geometry file
f->close();
}
