diff --git a/methods/__pycache__/adashof.cpython-310.pyc b/methods/__pycache__/adashof.cpython-310.pyc
deleted file mode 100644
index 0eae274..0000000
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diff --git a/methods/__pycache__/fit_linear_regression_model.cpython-310.pyc b/methods/__pycache__/fit_linear_regression_model.cpython-310.pyc
deleted file mode 100644
index 7d3d19e..0000000
Binary files a/methods/__pycache__/fit_linear_regression_model.cpython-310.pyc and /dev/null differ
diff --git a/notebooks/B_updown.ipynb b/notebooks/B_updown.ipynb
index 480d54f..b8bad6c 100644
--- a/notebooks/B_updown.ipynb
+++ b/notebooks/B_updown.ipynb
@@ -2,7 +2,7 @@
"cells": [
{
"cell_type": "code",
- "execution_count": 8,
+ "execution_count": 1,
"metadata": {},
"outputs": [],
"source": [
@@ -22,55 +22,65 @@
},
{
"cell_type": "code",
- "execution_count": 9,
+ "execution_count": 2,
"metadata": {},
"outputs": [
{
"data": {
"text/plain": [
- "10522"
+ "44804"
]
},
- "execution_count": 9,
+ "execution_count": 2,
"metadata": {},
"output_type": "execute_result"
}
],
"source": [
- "file = uproot.open(\"tracking_losses_ntuple_Bd2KstEE.root:PrDebugTrackingLosses.PrDebugTrackingTool/Tuple;1\")\n",
+ "# file = uproot.open(\"tracking_losses_ntuple_Bd2KstEE.root:PrDebugTrackingLosses.PrDebugTrackingTool/Tuple;1\")\n",
+ "file = uproot.open(\n",
+ " \"/work/cetin/Projektpraktikum/tracking_losses_ntuple_B_rad_length_beginVelo2endUT.root:PrDebugTrackingLosses.PrDebugTrackingTool/Tuple;1\"\n",
+ ")\n",
"\n",
- "#selektiere nur elektronen von B->K*ee und nur solche mit einem momentum von ueber 5 GeV \n",
+ "# selektiere nur elektronen von B->K*ee und nur solche mit einem momentum von ueber 5 GeV\n",
"allcolumns = file.arrays()\n",
- "found = allcolumns[(allcolumns.isElectron) & (~allcolumns.lost) & (allcolumns.fromSignal) & (allcolumns.p > 5e3)] #B: 9056\n",
- "lost = allcolumns[(allcolumns.isElectron) & (allcolumns.lost) & (allcolumns.fromSignal) & (allcolumns.p > 5e3)] #B: 1466\n",
+ "found = allcolumns[(allcolumns.isElectron)\n",
+ " & (~allcolumns.lost)\n",
+ " & (allcolumns.fromB)\n",
+ " & (allcolumns.p > 5e3)] # B: 9056\n",
+ "lost = allcolumns[(allcolumns.isElectron)\n",
+ " & (allcolumns.lost)\n",
+ " & (allcolumns.fromB)\n",
+ " & (allcolumns.p > 5e3)] # B: 1466\n",
"\n",
"ak.num(found, axis=0) + ak.num(lost, axis=0)\n",
- "#ak.count(found, axis=None)"
+ "# ak.count(found, axis=None)"
]
},
{
"cell_type": "code",
- "execution_count": 10,
+ "execution_count": 3,
"metadata": {},
"outputs": [
{
"name": "stdout",
"output_type": "stream",
"text": [
- "eff all = 0.8606728758791105 +/- 0.003375885792719708\n"
+ "eff all = 0.8343228283189001 +/- 0.0017564670414882176\n"
]
}
],
"source": [
- "def t_eff(found, lost, axis = 0):\n",
+ "def t_eff(found, lost, axis=0):\n",
" sel = ak.num(found, axis=axis)\n",
" des = ak.num(lost, axis=axis)\n",
- " return sel/(sel + des)\n",
+ " return sel / (sel + des)\n",
+ "\n",
"\n",
"def eff_err(found, lost):\n",
" n_f = ak.num(found, axis=0)\n",
- " n_all = ak.num(found, axis=0) + ak.num(lost,axis=0)\n",
- " return 1/n_all * np.sqrt(np.abs(n_f*(1-n_f/n_all)))\n",
+ " n_all = ak.num(found, axis=0) + ak.num(lost, axis=0)\n",
+ " return 1 / n_all * np.sqrt(np.abs(n_f * (1 - n_f / n_all)))\n",
"\n",
"\n",
"print(\"eff all = \", t_eff(found, lost), \"+/-\", eff_err(found, lost))"
@@ -78,14 +88,14 @@
},
{
"cell_type": "code",
- "execution_count": 11,
+ "execution_count": 4,
"metadata": {},
"outputs": [],
"source": [
- "#try excluding all photons that originate from a vtx @ z>9500mm\n",
- "#ignore all brem vertices @ z>9500mm \n",
+ "# try excluding all photons that originate from a vtx @ z>9500mm\n",
+ "# ignore all brem vertices @ z>9500mm\n",
"\n",
- "#found\n",
+ "# found\n",
"\n",
"brem_e_f = found[\"brem_photons_pe\"]\n",
"brem_z_f = found[\"brem_vtx_z\"]\n",
@@ -94,21 +104,21 @@
"\n",
"brem_f = ak.ArrayBuilder()\n",
"\n",
- "for itr in range(ak.num(found,axis=0)):\n",
+ "for itr in range(ak.num(found, axis=0)):\n",
" brem_f.begin_record()\n",
- " #[:,\"energy\"] energy\n",
+ " # [:,\"energy\"] energy\n",
" brem_f.field(\"energy\").append(e_f[itr])\n",
- " #[:,\"photon_length\"] number of vertices\n",
+ " # [:,\"photon_length\"] number of vertices\n",
" brem_f.field(\"photon_length\").integer(length_f[itr])\n",
- " #[:,\"brem_photons_pe\",:] photon energy \n",
+ " # [:,\"brem_photons_pe\",:] photon energy\n",
" brem_f.field(\"brem_photons_pe\").append(brem_e_f[itr])\n",
- " #[:,\"brem_vtx_z\",:] brem vtx z\n",
+ " # [:,\"brem_vtx_z\",:] brem vtx z\n",
" brem_f.field(\"brem_vtx_z\").append(brem_z_f[itr])\n",
" brem_f.end_record()\n",
"\n",
"brem_f = ak.Array(brem_f)\n",
"\n",
- "#lost\n",
+ "# lost\n",
"\n",
"brem_e_l = lost[\"brem_photons_pe\"]\n",
"brem_z_l = lost[\"brem_vtx_z\"]\n",
@@ -117,15 +127,15 @@
"\n",
"brem_l = ak.ArrayBuilder()\n",
"\n",
- "for itr in range(ak.num(lost,axis=0)):\n",
+ "for itr in range(ak.num(lost, axis=0)):\n",
" brem_l.begin_record()\n",
- " #[:,\"energy\"] energy\n",
+ " # [:,\"energy\"] energy\n",
" brem_l.field(\"energy\").append(e_l[itr])\n",
- " #[:,\"photon_length\"] number of vertices\n",
+ " # [:,\"photon_length\"] number of vertices\n",
" brem_l.field(\"photon_length\").integer(length_l[itr])\n",
- " #[:,\"brem_photons_pe\",:] photon energy \n",
+ " # [:,\"brem_photons_pe\",:] photon energy\n",
" brem_l.field(\"brem_photons_pe\").append(brem_e_l[itr])\n",
- " #[:,\"brem_vtx_z\",:] brem vtx z\n",
+ " # [:,\"brem_vtx_z\",:] brem vtx z\n",
" brem_l.field(\"brem_vtx_z\").append(brem_z_l[itr])\n",
" brem_l.end_record()\n",
"\n",
@@ -134,7 +144,7 @@
},
{
"cell_type": "code",
- "execution_count": 12,
+ "execution_count": 5,
"metadata": {},
"outputs": [],
"source": [
@@ -142,80 +152,75 @@
"\n",
"for itr in range(ak.num(brem_f, axis=0)):\n",
" cut_brem_found.begin_record()\n",
- " cut_brem_found.field(\"energy\").real(brem_f[itr,\"energy\"])\n",
- " \n",
+ " cut_brem_found.field(\"energy\").real(brem_f[itr, \"energy\"])\n",
+ "\n",
" cut_brem_found.field(\"brem_photons_pe\")\n",
" cut_brem_found.begin_list()\n",
" for jentry in range(brem_f[itr, \"photon_length\"]):\n",
- " if brem_f[itr, \"brem_vtx_z\", jentry]>9500:\n",
+ " if brem_f[itr, \"brem_vtx_z\", jentry] > 9500:\n",
" continue\n",
" else:\n",
- " cut_brem_found.real(brem_f[itr,\"brem_photons_pe\", jentry])\n",
- " \n",
- " #cut_brem_found.field(\"brem_vtx_z\").real(brem_f[itr, \"brem_vtx_z\",jentry])\n",
+ " cut_brem_found.real(brem_f[itr, \"brem_photons_pe\", jentry])\n",
+ "\n",
+ " # cut_brem_found.field(\"brem_vtx_z\").real(brem_f[itr, \"brem_vtx_z\",jentry])\n",
" cut_brem_found.end_list()\n",
- " \n",
+ "\n",
" cut_brem_found.field(\"brem_vtx_z\")\n",
" cut_brem_found.begin_list()\n",
" for jentry in range(brem_f[itr, \"photon_length\"]):\n",
- " if brem_f[itr, \"brem_vtx_z\", jentry]>9500:\n",
+ " if brem_f[itr, \"brem_vtx_z\", jentry] > 9500:\n",
" continue\n",
" else:\n",
- " cut_brem_found.real(brem_f[itr, \"brem_vtx_z\",jentry])\n",
+ " cut_brem_found.real(brem_f[itr, \"brem_vtx_z\", jentry])\n",
" cut_brem_found.end_list()\n",
- " \n",
"\n",
- " \n",
" cut_brem_found.end_record()\n",
"\n",
"cut_brem_found = ak.Array(cut_brem_found)\n",
"\n",
- "\n",
- "\n",
"cut_brem_lost = ak.ArrayBuilder()\n",
"\n",
"for itr in range(ak.num(brem_l, axis=0)):\n",
" cut_brem_lost.begin_record()\n",
- " cut_brem_lost.field(\"energy\").real(brem_l[itr,\"energy\"])\n",
- " \n",
- " \n",
+ " cut_brem_lost.field(\"energy\").real(brem_l[itr, \"energy\"])\n",
+ "\n",
" cut_brem_lost.field(\"brem_photons_pe\")\n",
" cut_brem_lost.begin_list()\n",
" for jentry in range(brem_l[itr, \"photon_length\"]):\n",
- " if brem_l[itr, \"brem_vtx_z\", jentry]>9500:\n",
+ " if brem_l[itr, \"brem_vtx_z\", jentry] > 9500:\n",
" continue\n",
" else:\n",
- " cut_brem_lost.real(brem_l[itr,\"brem_photons_pe\", jentry])\n",
- " \n",
- " #cut_brem_found.field(\"brem_vtx_z\").real(brem_f[itr, \"brem_vtx_z\",jentry])\n",
+ " cut_brem_lost.real(brem_l[itr, \"brem_photons_pe\", jentry])\n",
+ "\n",
+ " # cut_brem_found.field(\"brem_vtx_z\").real(brem_f[itr, \"brem_vtx_z\",jentry])\n",
" cut_brem_lost.end_list()\n",
- " \n",
+ "\n",
" cut_brem_lost.field(\"brem_vtx_z\")\n",
" cut_brem_lost.begin_list()\n",
" for jentry in range(brem_l[itr, \"photon_length\"]):\n",
- " if brem_l[itr, \"brem_vtx_z\", jentry]>9500:\n",
+ " if brem_l[itr, \"brem_vtx_z\", jentry] > 9500:\n",
" continue\n",
" else:\n",
- " cut_brem_lost.real(brem_l[itr, \"brem_vtx_z\",jentry])\n",
+ " cut_brem_lost.real(brem_l[itr, \"brem_vtx_z\", jentry])\n",
" cut_brem_lost.end_list()\n",
- " \n",
+ "\n",
" cut_brem_lost.end_record()\n",
"\n",
- "cut_brem_lost = ak.Array(cut_brem_lost)\n"
+ "cut_brem_lost = ak.Array(cut_brem_lost)"
]
},
{
"cell_type": "code",
- "execution_count": 13,
+ "execution_count": 6,
"metadata": {},
"outputs": [
{
"data": {
"text/html": [
- "
{energy: 9.36e+03,\n",
- " brem_photons_pe: [2.47e+03, 170, 224, 388, 3.23e+03, 809, 172, 224],\n",
- " brem_vtx_z: [400, 501, 638, 667, 677, 709, 8.58e+03, 9.28e+03]}\n",
- "---------------------------------------------------------------------\n",
+ "{energy: 3.26e+04,\n",
+ " brem_photons_pe: [824, 287, 1.26e+04, 4.49e+03, 3.59e+03, 111],\n",
+ " brem_vtx_z: [157, 158, 601, 2.33e+03, 8.65e+03, 8.67e+03]}\n",
+ "----------------------------------------------------------------\n",
"type: {\n",
" energy: float64,\n",
" brem_photons_pe: var * float64,\n",
@@ -223,135 +228,139 @@
"}
"
],
"text/plain": [
- ""
+ ""
]
},
- "execution_count": 13,
+ "execution_count": 6,
"metadata": {},
"output_type": "execute_result"
}
],
"source": [
- "#data in cut_brem_found and cut_brem_lost\n",
+ "# data in cut_brem_found and cut_brem_lost\n",
"\n",
- "cut_length_found = ak.num(cut_brem_found[\"brem_photons_pe\"],axis=-1)\n",
+ "cut_length_found = ak.num(cut_brem_found[\"brem_photons_pe\"], axis=-1)\n",
"cut_length_lost = ak.num(cut_brem_lost[\"brem_photons_pe\"], axis=-1)\n",
"\n",
- "cut_brem_found[1]\n"
+ "cut_brem_found[1]"
]
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
- "#### in magnet"
+ "#### in magnet\n"
]
},
{
"cell_type": "code",
- "execution_count": 21,
+ "execution_count": 7,
"metadata": {},
"outputs": [],
"source": [
"inmagnet_found = ak.ArrayBuilder()\n",
"\n",
"for itr in range(ak.num(cut_brem_found, axis=0)):\n",
- " \n",
+ "\n",
" inmagnet_found.begin_record()\n",
- " inmagnet_found.field(\"energy\").real(cut_brem_found[itr,\"energy\"])\n",
- " \n",
+ " inmagnet_found.field(\"energy\").real(cut_brem_found[itr, \"energy\"])\n",
+ "\n",
" inmagnet_found.field(\"brem_photons_pe\")\n",
" inmagnet_found.begin_list()\n",
" for jentry in range(cut_length_found[itr]):\n",
- " if (cut_brem_found[itr, \"brem_vtx_z\", jentry]>1500):\n",
- " if cut_brem_found[itr, \"brem_vtx_z\", jentry]<=9500:\n",
- " inmagnet_found.real(cut_brem_found[itr,\"brem_photons_pe\",jentry])\n",
+ " if cut_brem_found[itr, \"brem_vtx_z\", jentry] > 1500:\n",
+ " if cut_brem_found[itr, \"brem_vtx_z\", jentry] <= 9500:\n",
+ " inmagnet_found.real(cut_brem_found[itr, \"brem_photons_pe\",\n",
+ " jentry])\n",
" else:\n",
" continue\n",
" inmagnet_found.end_list()\n",
- " \n",
+ "\n",
" inmagnet_found.field(\"brem_vtx_z\")\n",
" inmagnet_found.begin_list()\n",
" for jentry in range(cut_length_found[itr]):\n",
- " if cut_brem_found[itr, \"brem_vtx_z\", jentry]>1500:\n",
- " if cut_brem_found[itr,\"brem_vtx_z\",jentry]<=9500:\n",
- " inmagnet_found.real(cut_brem_found[itr,\"brem_vtx_z\",jentry])\n",
+ " if cut_brem_found[itr, \"brem_vtx_z\", jentry] > 1500:\n",
+ " if cut_brem_found[itr, \"brem_vtx_z\", jentry] <= 9500:\n",
+ " inmagnet_found.real(cut_brem_found[itr, \"brem_vtx_z\", jentry])\n",
" else:\n",
" continue\n",
" inmagnet_found.end_list()\n",
" inmagnet_found.end_record()\n",
- " \n",
"\n",
"inmagnet_found = ak.Array(inmagnet_found)\n",
"\n",
- "\n",
"inmagnet_lost = ak.ArrayBuilder()\n",
"\n",
"for itr in range(ak.num(cut_brem_lost, axis=0)):\n",
- " \n",
+ "\n",
" inmagnet_lost.begin_record()\n",
- " inmagnet_lost.field(\"energy\").real(cut_brem_lost[itr,\"energy\"])\n",
- " \n",
+ " inmagnet_lost.field(\"energy\").real(cut_brem_lost[itr, \"energy\"])\n",
+ "\n",
" inmagnet_lost.field(\"brem_photons_pe\")\n",
" inmagnet_lost.begin_list()\n",
" for jentry in range(cut_length_lost[itr]):\n",
- " if (cut_brem_lost[itr, \"brem_vtx_z\", jentry]>1500):\n",
- " if cut_brem_lost[itr, \"brem_vtx_z\", jentry]<=9500:\n",
- " inmagnet_lost.real(cut_brem_lost[itr,\"brem_photons_pe\",jentry])\n",
+ " if cut_brem_lost[itr, \"brem_vtx_z\", jentry] > 1500:\n",
+ " if cut_brem_lost[itr, \"brem_vtx_z\", jentry] <= 9500:\n",
+ " inmagnet_lost.real(cut_brem_lost[itr, \"brem_photons_pe\",\n",
+ " jentry])\n",
" else:\n",
" continue\n",
" inmagnet_lost.end_list()\n",
- " \n",
+ "\n",
" inmagnet_lost.field(\"brem_vtx_z\")\n",
" inmagnet_lost.begin_list()\n",
" for jentry in range(cut_length_lost[itr]):\n",
- " if cut_brem_lost[itr, \"brem_vtx_z\", jentry]>1500:\n",
- " if cut_brem_lost[itr,\"brem_vtx_z\",jentry]<=9500:\n",
- " inmagnet_lost.real(cut_brem_lost[itr,\"brem_vtx_z\",jentry])\n",
+ " if cut_brem_lost[itr, \"brem_vtx_z\", jentry] > 1500:\n",
+ " if cut_brem_lost[itr, \"brem_vtx_z\", jentry] <= 9500:\n",
+ " inmagnet_lost.real(cut_brem_lost[itr, \"brem_vtx_z\", jentry])\n",
" else:\n",
" continue\n",
" inmagnet_lost.end_list()\n",
" inmagnet_lost.end_record()\n",
- " \n",
"\n",
- "inmagnet_lost = ak.Array(inmagnet_lost)\n"
+ "inmagnet_lost = ak.Array(inmagnet_lost)"
]
},
{
"cell_type": "code",
- "execution_count": 22,
+ "execution_count": 8,
"metadata": {},
"outputs": [],
"source": [
- "cutoff_energy=350\n",
- "#possibly: instead of checking if any photons exceed the cutoff, use the sum of all photon energies to separate nobrem and brem\n",
+ "cutoff_energy = 350\n",
+ "# possibly: instead of checking if any photons exceed the cutoff, use the sum of all photon energies to separate nobrem and brem\n",
"\n",
- "inmagnet_brem_found = inmagnet_found[ak.sum(inmagnet_found[\"brem_photons_pe\"],axis=-1,keepdims=False)>=cutoff_energy]\n",
+ "inmagnet_brem_found = inmagnet_found[ak.sum(inmagnet_found[\"brem_photons_pe\"],\n",
+ " axis=-1,\n",
+ " keepdims=False) >= cutoff_energy]\n",
"magnet_energy_found = ak.to_numpy(inmagnet_brem_found[\"energy\"])\n",
- "magnet_eph_found = ak.to_numpy(ak.sum(inmagnet_brem_found[\"brem_photons_pe\"], axis=-1, keepdims=False))\n",
+ "magnet_eph_found = ak.to_numpy(\n",
+ " ak.sum(inmagnet_brem_found[\"brem_photons_pe\"], axis=-1, keepdims=False))\n",
"magnet_residual_found = magnet_energy_found - magnet_eph_found\n",
- "magnet_energyloss_found = magnet_eph_found/magnet_energy_found\n",
- "\n",
+ "magnet_energyloss_found = magnet_eph_found / magnet_energy_found\n",
"\n",
- "inmagnet_brem_lost = inmagnet_lost[ak.sum(inmagnet_lost[\"brem_photons_pe\"],axis=-1,keepdims=False)>=cutoff_energy]\n",
+ "inmagnet_brem_lost = inmagnet_lost[ak.sum(inmagnet_lost[\"brem_photons_pe\"],\n",
+ " axis=-1,\n",
+ " keepdims=False) >= cutoff_energy]\n",
"magnet_energy_lost = ak.to_numpy(inmagnet_brem_lost[\"energy\"])\n",
- "magnet_eph_lost = ak.to_numpy(ak.sum(inmagnet_brem_lost[\"brem_photons_pe\"], axis=-1, keepdims=False))\n",
+ "magnet_eph_lost = ak.to_numpy(\n",
+ " ak.sum(inmagnet_brem_lost[\"brem_photons_pe\"], axis=-1, keepdims=False))\n",
"magnet_residual_lost = magnet_energy_lost - magnet_eph_lost\n",
- "magnet_energyloss_lost = magnet_eph_lost/magnet_energy_lost"
+ "magnet_energyloss_lost = magnet_eph_lost / magnet_energy_lost"
]
},
{
"cell_type": "code",
- "execution_count": 23,
+ "execution_count": 9,
"metadata": {},
"outputs": [
{
"data": {
"text/plain": [
- "24784.620206013704"
+ "20316.361014308728"
]
},
- "execution_count": 23,
+ "execution_count": 9,
"metadata": {},
"output_type": "execute_result"
}
@@ -362,12 +371,12 @@
},
{
"cell_type": "code",
- "execution_count": 24,
+ "execution_count": 10,
"metadata": {},
"outputs": [
{
"data": {
- "image/png": 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",
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",
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