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@aseyboldt
Created November 22, 2013 10:42
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BMZ-OPNG Test
{
"metadata": {
"name": ""
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"nbformat": 3,
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"worksheets": [
{
"cells": [
{
"cell_type": "markdown",
"metadata": {},
"source": [
"# Auswertung GMZ"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"%matplotlib inline\n",
"\n",
"import numpy as np\n",
"import matplotlib.pyplot as plt\n",
"import statsmodels.formula.api as smf\n",
"import statsmodels as sm\n",
"import pandas as pd\n",
"import pymc as pm\n",
"from scipy import stats\n",
"import itertools"
],
"language": "python",
"metadata": {},
"outputs": [],
"prompt_number": 81
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"Einige Parameter. Siehe Kursskript"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"# optical density of original suspension\n",
"od_600 = .5\n",
"volume = 1.7 # ml\n",
"\n",
"# reaction time [s]\n",
"t = 10 * 60"
],
"language": "python",
"metadata": {},
"outputs": [],
"prompt_number": 82
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"Einlesen der Ergebnisse der einzelnen Kurse"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"classes = {}\n",
"\n",
"for klass in \"ABCDEF\":\n",
" p = pd.read_csv(\"./ONPG-Test BMZ 2013_{}.csv\".format(klass),\n",
" decimal=',', na_values=[\"\"], )\n",
" p = p.set_index([\"strain\", \"medium\"])\n",
" p = p.stack().dropna()\n",
" p.index.rename([\"strain\", \"medium\", \"group\"], inplace=True)\n",
" p = p.clip_lower(0.001) # ?????\n",
" p = p.apply(np.log)\n",
" p = pd.DataFrame(p, columns=[\"od_420\"])\n",
" p['volume'] = 1.7\n",
" p['beta_gal'] = 1e2 * p['od_420'] * p['volume'] / (t * od_600)\n",
" classes[klass] = p\n",
"\n",
"\n",
"df_lac = pd.concat(classes)\n",
"#df_lac.loc['B', 'A', 'LB', '2'] = -3 # work around bug\n",
"#df_lac.loc['B', 'A', 'LB', '3'] = -3.5\n",
"df_lac"
],
"language": "python",
"metadata": {},
"outputs": [
{
"html": [
"<pre>\n",
"&lt;class 'pandas.core.frame.DataFrame'&gt;\n",
"MultiIndex: 603 entries, (A, A, LB, 1) to (F, F, LB_IPTG_GLU, 7)\n",
"Data columns (total 3 columns):\n",
"od_420 603 non-null values\n",
"volume 603 non-null values\n",
"beta_gal 603 non-null values\n",
"dtypes: float64(3)\n",
"</pre>"
],
"metadata": {},
"output_type": "pyout",
"prompt_number": 119,
"text": [
"<class 'pandas.core.frame.DataFrame'>\n",
"MultiIndex: 603 entries, (A, A, LB, 1) to (F, F, LB_IPTG_GLU, 7)\n",
"Data columns (total 3 columns):\n",
"od_420 603 non-null values\n",
"volume 603 non-null values\n",
"beta_gal 603 non-null values\n",
"dtypes: float64(3)"
]
}
],
"prompt_number": 119
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"- Erster Index: Kursnummer\n",
"- Zweiter Index: Bakterienstamm\n",
"- Dritter Index: Medium\n",
"- Vierter Index: Gruppennummer\n",
"\n",
"`df_lac.ix['B', 'A', 'LB', 2]['od_420']` ist also das Ergebnis von Kurs Gruppe 2\n",
"bei Kurs 'B' f\u00fcr den Stamm A.\n"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"d = df_lac.xs('beta_gal', axis=1)#.apply(np.exp)\n",
"axes = d.unstack(level='strain').reset_index('medium').boxplot(by='medium', rot=30, grid=False)\n",
"axes[0].figure.set_size_inches(12, 4)\n",
"axes[0].figure.suptitle(\"\")\n",
"axes[0].set_ylabel('log of reaction speed')\n",
"for ax in axes:\n",
" ax.set_xlabel(\"\")\n",
"ax.figure.tight_layout()"
],
"language": "python",
"metadata": {},
"outputs": [
{
"metadata": {},
"output_type": "display_data",
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zAABgVqONVd++ffXAAw9IksaNG+fIBqoxszcV0lgBaBJLmwMAALNMrQo4cuTI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\nALQSjRUAAAAAtNL/ByAYcai3/frbAAAAAElFTkSuQmCC\n",
"text": [
"<matplotlib.figure.Figure at 0x6700590>"
]
}
],
"prompt_number": 120
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"## Rough estimates for location and std in log-domain"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"groups = df_lac.xs('beta_gal', axis=1).groupby(level=['strain', 'medium'], axis=0)\n",
"grid = True\n",
"\n",
"fig = plt.figure(figsize=(10.3, 13))\n",
"ax = fig.add_subplot(412)\n",
"groups.agg(lambda x: sm.robust.norms.estimate_location(x, sm.robust.scale.stand_mad(x))).unstack().plot(kind='bar', ax=ax, grid=grid)\n",
"ax.set_title('loc')\n",
"\n",
"ax = fig.add_subplot(413)\n",
"groups.agg(lambda x: sm.robust.scale.stand_mad(x)).unstack().plot(kind='bar', ax=ax, grid=grid)\n",
"ax.set_title('mad')\n",
"fig.tight_layout()"
],
"language": "python",
"metadata": {},
"outputs": [
{
"metadata": {},
"output_type": "display_data",
"png": 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du3bpww8/VEFBQYfHGzhwoCorK1VYWKhBgwapsrLSk3Q3HXfz5s2qrKzU22+/\nra1bt6qgoEALFy5UZWWlKisrNW7cOM/YlZWVGjBggKqqquRwOPTggw/q0KFDevPNNzv8EGACrngD\nfhQOV3CAYMI5ZybiFlzsdrvS0tJ04MCBTu/TmdWpr7/+eqWlpengwYMd7r9+/XpNnDhR06dPlyQl\nJycrOTm50/MJVuZ/dAAAAMAVa0p+jx07puLiYqWmds3Dl5qO++mnn6q0tFQjRoxo0efyq/D79+/X\nmDFjumT8YELiDfjR5U/SA+BfnHNmIm6B53a7tWjRIg0ePFjDhg3TVVddpXvvvbdLjpuZmalrrrlG\nmZmZuu+++zpVp11TU+N5Rswbb7yhlJSUkHggEYk3AABAmLPZbFq5cqUqKip06NAhJSQkaMmSJV1y\n3E2bNunQoUPau3evFi9e3GqN+eX69u2rU6dOSZJmzpyp4uJinT9//ornE2jUeAN+RN1iYHWP765p\nWdb9qTLqyFeWjYXWcc6ZibgFl/j4eM2YMUNLly4N2ByGDx+ujz76yNPuTA25CUi8AYSs0zabUq/t\nY9l4J44etmwsAPCVy+VSfX29px0ZGSnp78ltXV2dtm3bpiFDrHnw0qVjN5k7d67Gjx+vd955R5Mn\nT1ZVVVWnrpQHOxJvwI/CZW3aUEPczEXszBQucbMn9PDrX+HsCT061S87O1vZ2dme9owZMyRJOTk5\nWrJkiWJiYpSWlqa8vLwOj3XpOt4NDQ1KTk5uto53Z12eVCcnJ2vjxo16+umnNX/+fPXv31+rVq3y\n6pjBiMQbAADAAvaEngF/suS7777bpcdrWse7Lfv27evwGG3NaeLEiSouLvZ1akGJmysBPwqHKzih\niLiZi9iZibghXJB4AwAAoFVr1qzxPLzm0n9Nj3uHdyg1AfwoXOoWvdEvLlrP/cSaG3b6xUX7tB9x\nMxexMxNxC14LFy7UwoULAz2NkOF14n3y5Em98MILOnfunKKiojRz5kyNHDmy3X2mT5+ulJQUSdKw\nYcM0Z84cnyYLwHxXx8Xo6riYQE8DAADLeZ14R0ZG6oEHHlBycrKOHz+upUuXasOGDe3uExMT06k7\nY4FQwxUcMxE3cxE7MxE3hAuvE2+73S673S5JSkxMlMvlksvlUlQUVSsAAABAW67o5sp9+/bp2muv\n7TDpvnDhgnJycpSbm6vPPvvsSoYEjFJSUhLoKcAHxM1cxM5MxA3hot2Medu2bXr//febbRs7dqym\nT5+u2tq4G1ffAAAgAElEQVRabdy4UTk5OR0OsmHDBtntdn355Zd6/vnnlZ+fr27durXZ/9KbLJpO\nRn+1nU5nh/NH5/k7Xk3tuGtT/fgu2ubtfPfv3+9Vf9rB0W4S7D9PnE6nPrPw56UJ7f379wfVfGiH\nb9vpdCopKUkIXZfG+PL4t8XmvvwZnZ3Q0NCg//iP/9Bdd92l1FTvEqDFixdr/vz5bf7PWFRUpFGj\nRnk7JZ99XH1Gj//uC0vGevGWAdq2scySsSTJkZGgT2Y+Ztl4Y7auU59brImdlXGTpOd+MkSpSXGW\njQcznfigTHvumm/ZeFaecwC8U11d3SLXOVd5VHVHjvptzB6D+qtncn+/HR/NtRZjSSorK1NGRkar\n+3hdmO12u7V+/XqNHz++1aS7sLBQkuRwOCRJZ8+eVXR0tKKjo1VTU6OTJ08qMTHR22GBZqxckq5p\nPAAArkTdkaN+/XA+Zuu6DhPvKVOmaNq0acrMzGyxfe/evYqKilJsbKymTp2qZ599VhER7VclX/rI\n+Pr6evXq1avZI+NTU1N1/PhxRUZGKi4uTnfeeaeWL1+utWvXetYCr6urU7du3Tyly7t27dKAAQNU\nUlKip556SuXl5erXr58WLlzoyS/bU19fr6efflpvvfWWXC6X0tLS9NJLL6lPnz5auXKlKioqWl0Y\n5OGHH1ZSUpKWLFkiSSouLtaCBQs69fTNzvI68f7888+1e/duVVdX67333pMkLVq0SAkJCZKk2tra\nZv2rq6u1fv16devWTREREXrooYcUHU0SgytjypJ0rE1rJuJmLmJnJuJmHZvNJpvN1ur2vLw8zZo1\nS06nU3fffbcKCgo6XAK66ZHxf/zjH/Xoo4+2SFJtNps2b96sCRMmqLy8XHfccYeGDBnSbH3wO+64\nQ9OmTdOsWbM8+1VVVcnhcOi5557TXXfdperqapWWlnbqPebm5urAgQMqLi5Wnz59tH37dp05c0Z9\n+vRp9b1fPl9/8jrxvvHGG7V58+Y2X583b16z9tChQ3m6EQAAgCHsdrvS0tJ04MCBTu/Tmcrl66+/\nXmlpaTp48GCH+69fv14TJ07U9OnTJcnzxMyOHD9+XJs2bdKOHTs8ZSBTp07t9Dx9qMD2Co+MB/yI\nKzhmIm7mInZmIm7BoSnpPHbsmIqLi72+j6+j43766acqLS3ViBEjWvS5/Erz/v37NWbMGK/H+uyz\nzxQZGanhw4f7Nlk/I/EGAAAIc263W4sWLdLgwYM1bNgwXXXVVbr33nu75LiZmZm65pprlJmZqfvu\nu69Tddo1NTWeMuY33nhDKSkpnVolpqamxvO8Genb1fgGDRqk1atX+/4muhCJN+BHrE1rJuJmLmJn\nJuIWeDabzXPj4aFDh5SQkOC5yfBKj7tp0yYdOnRIe/fu1eLFiztVR923b1+dOnVKkjRz5kwVFxfr\n/Pnzndrv9OnTnvaf//xnTZ48WRcvXuxw34iIiBZz6+jmUm+ReAMAAMAjPj5eM2bM0B/+8IeAzWH4\n8OH66KOPPO3O1l7fcMMNunDhQqt15B3p1atXswTd5XKpZ8+eXh+nPSTegB9Rt2gm4mYuYmcm4mYt\nl8ul+vp6z78LFy5I+ntyW1dXp23btmnIEOuW7b08sZ47d66Kior0zjvvyOVyqaqqqtNXyu+9914t\nXrxYNTU1amho0LFjx5r1aWxs1Pnz5z3vv+lK+s0336zf//73qqmp0blz5/Tmm2/qpptu6ro3KR9W\nNQEAAID3egzqrzFb1/n1+J2RnZ2t7OxsT3vGjBmSpJycHC1ZskQxMTFKS0tTXl5eh8e6dB3vhoYG\nJScnN1vHu7MuT6qTk5O1ceNGPf3005o/f7769++vVatWdepYK1asUG5urtLT02Wz2ZSWluZ5jzab\nTVu3btXWrVubjfXRRx/pzjvv1F/+8hdNmDBBDQ0NmjBhgtasWePV++iIT0+u9CeeXNl1QvnJlaZg\nbVoz+Ro3nlwZeJxzZgrFuLX1VEOEDl+eXEmpCQAAAGABEm/Aj0LtCk64IG7mInZmIm7Ba82aNZ6H\n11z6L1APR9y1a1er82l60E6wo8YbAAAArbr00e7BYNy4caqsrAz0NHxG4m2h7vHdNS3L+6cwOZ3O\nZovBd1bUka+83gddKxTrFsMBcTMXsTMTcUO4IPG20GmbTanX9vF6v5KSzzTie9d6vd+Jo4e93gcA\nAFw5t9stt9vdqSXwYJ7Gxkaf9gv7xLtfXLSe+4k161T2i4v2aT+uApiL2JmJuJmL2JkpFONmt9t1\n8uRJ9enj/QU3BLfGxkZ9/fXX6tevn9f7hn3ifXVcjK6Oiwn0NAAAQAiJjY1VfX29qqurAz0V+EG/\nfv0UHe39BVWvE+8zZ85oxYoVcrlckqQ777xT6enp7e5TWlrqWUh99uzZGj16tNcTDWe+1r75e6H+\n1sZDc9Qtmom4mYvYmSlU45aYmBjoKfhdqMbOX7xOvHv27Kmf/exniomJ0ZkzZ/TYY48pLS1NERGt\nr0zocrlUWFioFStWqKGhQcuWLSPxtkjP5P7qmUwyDAAAEAy8TrwjIyMVGRkpSfrb3/6mbt26tdu/\nvLxcAwcOVHx8vKRvP/1VVFRo8ODB3s82TPFJ0lzEzky+xo2/MgUe55yZiJu5iJ13fKrxrq+v15Il\nS3Ts2DE98sgjbV7tlr5dCi8hIUE7duxQbGys7Ha7amtrfZ4wAAQr/soEAGhPu4n3tm3b9P777zfb\nNnbsWE2fPl2rV6/W119/rZUrV2rkyJHq3r17uwNNmjRJkrR79+4rnHL4oX7KXMTOTMTNXMTOTMTN\nXMTOO+0m3pMnT9bkyZPbfH3AgAG66qqr9PXXX+u6665rtU/v3r116tQpT7vpCnh7ysrK2n093PTs\n2ZPviaGInZmIm7mInZmIm7mInXe8LjU5efKkunXrpri4ONXW1qq6ulp9+/b1vF5YWChJcjgckqQh\nQ4aoqqpKp0+fVkNDg06cOKGUlJQ2j5+RkeHtlAAAAICg53Xiffz4cb366quSvn0q0+zZsxUXF+d5\n/fL67aioKDkcDuXm5kqS5syZcwXTBQAAAMxkc7vd7kBPAgAAAAh1bS9HAgAAAKDLkHgDCFvHjx/X\n2bNnW2w/e/asTpw4EYAZAQBCGYk30EWOHz8up9MpSaqsrNTvf/977vQOcs8995xcLleL7RcuXNDK\nlSsDMCN4o7GxUeXl5frggw9UWlqqL774QlRPBreDBw96vj558mSz1/bs2WP1dOCFvXv3er4+d+5c\nAGdiNhLvIPfNN99o+/btWrVqVaCngna8+eabeuaZZ7R48WL9+te/1oYNG3T8+HFt375dr7/+eqCn\nhzZcuHBBvXv3brE9ISGh1YQcwaOmpkbZ2dnauHGj9u7dqw8//FAFBQVauHChampqAj09tOGXv/yl\n5+vLP9z+5je/sXo68MKWLVs8X//sZz8L3EQM59OTK+E/9fX1+stf/qJ9+/bp448/1smTJzVp0iSW\nWQxyH3zwgV544QXV19froYce0quvvqru3bursbFRjz/+eKCnhzbExsbq888/1w033NBs+8GDBxUb\nGxugWaEzfvnLX+pf//VfNXz48Gbb//KXv+iXv/ylnnzyyQDNDADaRuIdRJYtW6azZ8/q+uuv1z/8\nwz/orrvu0vLly1mC0QCRkZGKiIhQz549dfXVV3ue5BoREaHIyMgAzw5teeihh7Ru3Tp169ZN/fr1\nkyQdO3ZM9fX1+ulPfxrg2aE9J0+ebJF0S9Lw4cNVUFAQgBkBoa2xsVFnz56V2+32fH0pLlZ0Dol3\nEImIiJDL5ZLL5dLFixfV2NgY6Cmhk44dO+b5s2lNTU2zP6HyZ+/glZSUpBUrVqiiosITp759+2rw\n4MGBnRg6dOLEiWZlC5e6vHYYwePw4cOaPXu2JKmhocHzdVMbwauurk45OTme9qVf22w2rVu3LhDT\nMg7reAeZ8+fP69NPP9XHH3+sjz/+WDU1NcrIyNA//MM/6Oabbw709NCGAwcOtPmazWbTsGHDLJwN\nEPqKi4vbff0HP/iBJfMAAG+QeAe548ePa9++ffrkk0+0cOHCQE8HAAAAPiLxBgAAACzAcoIAAACA\nBUi8AQAAAAuQeAMAAAAWIPEGALSQnZ2tTz/9NNDTAICQws2VAGCoAwcOaN26dfr5z38e6KkAADqB\nK94AAACABbjiDQBB7OjRo1q/fr0qKyvVvXt3TZ48WXfccYcyMzPldrt14cIFxcTESJLmz5+vsWPH\nSvr2ATNFRUUaMWKE/vu//1vSt+Ujw4YN09q1a3XgwAHV19crJSVF//Zv/6bk5GRJ0qZNm/T73/9e\n58+f19KlSzVixAjPXF5++WVFRETo6NGjOnz4sNLS0jR37lyLvyMAYC4eGQ8AQWzLli265ppr9Mwz\nz+jcuXOqrKyUJG3cuFGffvqpXnrppTZLTSorKzVixAi98sorOnv2rOeR3Ndcc43+5V/+RXFxcSos\nLNTLL7+sVatWSZJmzZqlWbNm6eGHH5bNZmtxzE8++UT/8R//IbfbrezsbE2aNElDhgzx07sHgNBC\nqQkABLGIiAidOnVKJ0+eVM+ePXXjjTd6XuvoD5bR0dG65557FBUVpd69e6tv376SpKlTpyo+Pl42\nm00TJ07U4cOHOzUXm82m73//++rTp48SExOVnJyso0eP+v7mACDMcMUbAILYrFmz9Ktf/UqLFi1S\nTEyMHA6H0tLSOrVv3759W1y1bmxs1K9+9Svt2rVLZ8+eVWNjo9xut9xud6tXuC/Xq1cvz9dRUVG6\ncOGCd28IAMIYiTcABLHvfOc7mjdvniTpvffe0yuvvOJJvDtKlCMjI1tsKykp0Z49e/Szn/1Mffr0\n0eHDh/XEE090OvEGAPiOUhMACGJ//vOfdfLkSU+7Z8+enq979+6t06dPy+l0dvp49fX1io6OVq9e\nvVRXV6e33nqrzb6Xl7JwLz4AXBmueANAEPvqq6/0X//1X6qrq9PVV1+thx9+2PNaUlKSbr31Vj3+\n+OOKjIxUVlaWRo8e7Xm9tSvYEyZM0L59+/Tggw8qPj5eP/7xj7Vr1y5J35ah3HfffbLZbGpoaNCq\nVasUERGh+++/X//4j/8om83GVXEAuAIsJwgAAABYgFITAAAAwAIk3gAAAIAFSLwBAAAAC5B4AwAA\nABYg8QYAAAAsQOINAAAAWIDEGwAAALAAiTcAAABgARJvAAAAwAIk3gAAAIAFSLwBAAAAC5B4AwAA\nABYg8QYAtOoHP/iBli1bFuhpAEDIIPEGALTKZrPJZrMFehoAEDJIvAEAAAALkHgDgOGKi4uVlJSk\nf/7nf1bv3r318ssv66abblLfvn1VVFQkScrOztZ3v/td9ezZU3379lVWVpZqa2ubHWfNmjXq37+/\n4uLi9NOf/lSNjY1yu92BeEsAEJJIvAEgBBw7dkz//u//rn/913/VI488ovz8fM2ZM0dr1qyRJNXV\n1Sk/P1+ffvqp3n77bZWWluqhhx7y7L9jxw498cQTeuaZZ1RWVqbz58+rtLSUUhMA6EJRgZ4AAODK\nXXXVVRo/frzOnDmjN954QxMmTNC5c+e0bds2SdL69es9fQcPHqy5c+dq6dKlnm2vvPKKfvjDHyor\nK0uSlJ+fr1//+tfWvgkACHEk3gAQAnr06OH5b9PX3bt3V11dnSTprbfe0gsvvKAvvvhCZ86ckcvl\n0oULFzz7f/HFF/rRj37kaXfv3l3XX3+9he8AAEIfpSYAEMLcbrf+/Oc/a8aMGbrjjju0fft2ffzx\nx1qyZIkaGxs9/SgpAQD/44o3AIS4kpISjRgxQv/+7//u2XbkyJFmfa6//np98sknnnZdXZ3Ky8st\nmyMAhAMSbwAIcTfccIM+++wz/fa3v9WwYcO0fft2bd26tVmfhx56SD/84Q/12muv6f/9v/+nNWvW\n6G9/+1uAZgwAoYlSEwAIAZeWilz+9eTJk5Wdna0HHnhAI0eO1Pvvv6/c3Nxm/W699VatXr1aTz31\nlL7//e8rOjpat9xyi6XvAQBCnc3t4yKtBQUF2rlzp+Lj47V69eo2+508eVIvvPCCzp07p6ioKM2c\nOVMjR470ecIAAACAiXxOvP/3f/9XUVFRevnll9tNvJ1Op5xOp5KTk3X8+HEtXbpUGzZs8HnCAAAA\ngIl8rvEeOnSoampqOuxnt9tlt9slSYmJiXK5XHK5XIqKorwcAAAA4cPSGu99+/bp2muvJekGAABA\n2LEsA66trdXGjRuVk5PTbr+ioiKLZgQAAAB0vYyMjFa3W5J4NzQ0aM2aNZo9e7b69u3bYf9Ro0ZZ\nMCsAAACga5WVlbX5WpeXmhQWFqqwsNDTdrvdWr9+vcaPH6/U1NSuHi4slJSUBHoK8BGxMxNxMxex\nMxNxMxex847PV7xfe+017dmzR6dPn9bcuXOVlZWl0aNHq7a2tlm/zz//XLt371Z1dbXee+89SdLi\nxYvVu3fvK5s5AAAAYBCflxP0l6KiIkpNAAAAYKSysrI2a7x5ciUAAABgAdb1M0BJSYnGjx8f6GnA\nB8TOTMTNXMTOTKEat+PHj6uhoSHQ0/Arp9PpeV5LOElMTFR0dLTX+5F4AwAAdLGzZ8/KZrMpKSkp\n0FPxq1B/f61pbGzU119/rX79+nmdfFPjDQAA0MW+/vprJSUlyWazBXoq8IPGxkZ98803rX7woMYb\nAADAQjabjaQ7hEVE+JZCk3gbgDUyzUXszETczEXszETcEC5IvAEAAAALkHgbIBTv9A4XxM5MxM1c\nxM5MxM1c6enpqqqq8rS3b9+uF198MYAzCm6sagIAAACfXF7Hfvvtt+v2228P0GyCH1e8DUDtm7mI\nnZmIm7mInZmIW2CtXLlSU6ZM0ZgxY/TEE09o7NixOnHihLZv367bbrtNEyZM0NKlSz398/PzlZaW\npvvvv1/nz5/3bJ87d65GjhypnJycZscfNGiQ5+spU6Zo3759Wrlypf7pn/6pxZihjiveAAAAYcxm\ns+n2229XVVWVBg4cqFtvvVXvvfeefvGLX+i3v/2tunfvrvvvv187d+5USkqKNm7cqJKSEh06dKhZ\nmdDPf/5zbd68Wfv27Wtx/Mu/ttls+vGPf9xszD179oT81XISbwNQ+2YuYmcm4mYuYmcm4hZ4CQkJ\nOnPmjOe/brdbhw8f1o9+9CNJ0rlz53T48GE5nU7dfPPNiomJ0Y033tjsarYkefN4mMvHPH36dJe+\np2BE4g0AABDmmtYdb/p3+vRp3XrrrXrllVea9du2bVuHx2mPy+Vqc8yLFy/6/gYMQY23Aah9Mxex\nMxNxMxexMxNxCz719fXatWuXqqurJUlHjhxRTU2NUlNTtWfPHp0/f14HDx7UkSNHmu3X2hXv+Ph4\n1dbWqq6uTuXl5ZbMP1hxxRsAAADN9O3bV6tXr5bD4ZDL5VKvXr306quvKiUlRTNnztTEiRN1ww03\naPDgwZKkyspKZWZm6tSpU6qvr9ef/vQn5ebm6rbbbtOjjz6qu+++W9/73vc0cODANscMhyd92tze\nFONYoKioSKNGjQr0NAAAAHxWXV2tpKSkQE8DftRWjMvKypSRkdHqPpSaAAAAABYg8TYAtW/mInZm\nIm7mInZmIm4IF9R4h7BzlUdVd+SoZeP1GNRfPZP7WzYeAACASUi8DeDr+qZ1R45qz13zu3g2bRuz\ndR2J92VYm9ZMxM1cxM5MxA3hglITAAAAwAIk3gag9s1cxM5MxM1cxM5MxA3hwudSk4KCAu3cuVPx\n8fFavXp1u31LS0u1ZcsWSdLs2bM1evRoX4cFAAAAjOTzFe+0tDQtWrSow34ul0uFhYV65plnlJub\nq9dff93XIcMWtW/mInZmIm7mInZmIm4IFz5f8R46dKhqamo67FdeXq6BAwcqPj5ekpSYmKiKigrP\nk44AAADCwTdnzuvYmQa/Hb9fXLSujotpt8+UKVM0bdo0ZWZmtti+d+9eRUVFKTY2VlOnTtWzzz6r\niAiqkruS31c1cTqdSkhI0I4dOxQbGyu73a7a2lp/DxtSSkpKuBpgKGJnJuJmLmJnpnCJ27EzDXr8\nd1/47fjP/WRIh4m3zWZr9dHsNptNeXl5mjVrlpxOp+6++24VFBRozpw5fppteLJsOcFJkyZJknbv\n3m3VkAAAAPCS3W5XWlqaDhw4EOiphBy///2gd+/eOnXqlKfddAW8PZfe3VxSUhL27Ut5u7/VguH7\nFUztpm3BMh/anWs3XXkLlvnQ7nz7UsEwH9qda48fPz6o5tMVbafTKdO43W5J0rFjx1RcXKzU1NQA\nzyi4XRrjy+PfFpu76bvsg5qaGq1atarZqiaFhYWSJIfDIenbmysXLFigFStWqKGhQcuXL1d+fn6b\nxywqKtKoUaN8nRIuceKDMssfoNPnFmIHAEB1dbWSkpKabfu4+ozfS01Sk+La7XPHHXdo2rRpmjVr\nVrPtU6ZM0UcffaSoqCidOXNGEydO1G9+8xtFRkb6bb6may3GklRWVqaMjIxW9/H5ivdrr72m3Nxc\nVVdXa+7cudq7d68kqba2tlkNd1RUlBwOh3Jzc/XMM89QK+SDznyCQnAidmYibuYidmYiboFns9m0\ncuVKVVRU6NChQ0pISNCSJUsCPa2QE+XrjllZWcrKymqxfd68eS22paenKz093dehAAAAYJH4+HjN\nmDFDS5cuDfRUQo7PiTesEw53eocqYmcm4mYuYmcm4mYtl8ul+vp6T7upnKSp+riurk7btm3TkCFD\nAjK/UEbiDQAAYIF+cdF67if+S2b7xUV3ql92drays7M97RkzZkiScnJytGTJEsXExCgtLU15eXl+\nmWc4I/E2QElJeKxvGoqInZmIm7mInZnCJW5Xx8V0uM62v7377rsBHT/c8TgiAAAAwAIk3gYIh6sA\noYrYmYm4mYvYmYm4IVyQeAMAAAAWIPE2AOubmovYmYm4mYvYmYm4IVyQeAMAAAAWIPE2ALVv5iJ2\nZiJu5iJ2ZiJuCBck3gAAAIAFSLwNQO2buYidmYibuYidmYgbwgWJNwAAAGABnlxpAGrfzEXszETc\nzEXszBQucXOeOifnqTq/Hd+e0EP2hJ5+Oz6uHIk3AACABZyn6vTr1/b47fjTssZ0mHhPmTJF06ZN\nU2ZmZovte/fuVVRUlGJjYzV16lQ9++yziohovziiqqpK6enpunjxourr69WrVy+NGzdOW7ZskSSl\npqbq+PHjioyMVFxcnO68804tX75ca9eu1dq1ayVJdXV16tatm6Kivk1Ld+3apQEDBqikpERPPfWU\nysvL1a9fPy1cuFAOh8PXb09QoNTEANS+mYvYmYm4mYvYmYm4Wcdms8lms7W6PS8vT5WVldq1a5c+\n/PBDFRQUdHi8gQMHqrKyUoWFhRo0aJAqKys9SXfTcTdv3qzKykq9/fbb2rp1qwoKCrRw4UJVVlaq\nsrJS48aN84xdWVmpAQMGqKqqSg6HQw8++KAOHTqkN998s8MPASbgijcAAAA87Ha70tLSdODAgU7v\n43a7O+xz/fXXKy0tTQcPHuxw//Xr12vixImaPn26JCk5OVnJycmdnk+wMv+jQxgIl9q3UETszETc\nzEXszETcgkNT8nvs2DEVFxcrNTW1S4/76aefqrS0VCNGjGjR5/Kr8Pv379eYMWO6ZPxgQuINAAAQ\n5txutxYtWqTBgwdr2LBhuuqqq3Tvvfd2yXEzMzN1zTXXKDMzU/fdd1+n6rRramqUkJAgSXrjjTeU\nkpKipKSkK55PoJF4G4DaN3MROzMRN3MROzMRt8Cz2WxauXKlKioqdOjQISUkJGjJkiVdctxNmzbp\n0KFD2rt3rxYvXtxqjfnl+vbtq1OnTkmSZs6cqeLiYp0/f/6K5xNoJN4AAADwiI+P14wZM/SHP/wh\nYHMYPny4PvroI0+7MzXkJuDmSgNQ+2YuYmcm4mYuYmemcImbPaGHpmX5r27ZntCjU/1cLpfq6+s9\n7cjISEl/T27r6uq0bds2DRkypOsn2YbLE+u5c+dq/PjxeueddzR58mRVVVV16kp5sCPxBgAAsIA9\noWdQPOAmOztb2dnZnvaMGTMkSTk5OVqyZIliYmKUlpamvLy8Do916TreDQ0NSk5ObraOd2ddnlQn\nJydr48aNevrppzV//nz1799fq1at8uqYwcjnxLu0tNTzTZ09e7ZGjx7dZt/f/OY32rVrlyQpPT1d\nd999t6/DhqWSkpKwuRoQaoidmYibuYidmYibdd59990uPV7TOt5t2bdvX4fHaGtOEydOVHFxsa9T\nC0o+Jd4ul0uFhYVasWKFGhoatGzZsjYT75qaGv3P//yPXnzxRTU2Nuqxxx7TxIkTddVVV13RxAEA\nAACT+HRzZXl5uQYOHKj4+HglJiYqMTFRFRUVrfbt0aOHoqKi1NDQoIaGBkVFRalnz8D/mcUkXAUw\nF7EzE3EzF7EzE3ELXmvWrPE8vObSf02Pe4d3fLri7XQ6lZCQoB07dig2NlZ2u121tbWt9o2Li9OP\nf/xjzZ07V263W7Nnz1avXr2uaNIAAADwv4ULF2rhwoWBnkbIuKLlBCdNmqRx48a126empkY7duzQ\n+vXr9dJLL+ndd99tM0lH61jf1FzEzkzEzVzEzkzEDeHCp8S7d+/enkXNpb9fAW/NF198oeuuu049\nevRQXFycBg8erEOHDrV7/EtPwJKSkrBv79+/3+f9rRYM369gau/fvz+o5kObdqi3r+TnJW3aXdl2\nOp1CaLs0xpfHvy02tw8rkrtcLi1YsMBzc+Xy5cuVn58vSSosLJQkz+NAv/zyS23YsEH/+Z//qcbG\nRj3++OPKyclp87GfRUVFGjVqlLdTQitOfFCmPXfNt2y8MVvXqc8txA4AgOrq6pB4xDna1laMy8rK\nlJGR0eo+Ub4MFBUVJYfDodzcXEnSnDlzPK9dXkZy3XXXaezYsXriiSckSRkZGfyPCAAAgLDjU+It\nfVoRs0wAABmrSURBVLsed3p6eovt8+bNa7Htnnvu0T333OPrUGGvpIT1TU1F7MxE3MxF7MxE3BAu\nfE684T3nqXNynqrzej97ryRVfnXC6/26uy56vQ8AAPCPc5VHVXfkqN+O32NQf/VM7u+34+PKkXhb\nyHmqTr9+bY9l4zkyWr/hFdbhCo6ZiJu5iJ2ZwiVudUeO+vXeqzFb13WYeE+ZMkXTpk1TZmZmi+17\n9+5VVFSUYmNjNXXqVD377LOKiGh/HY5LHxlfX1+vXr16NXtkfGpqqo4fP67IyEjFxcXpzjvv1PLl\ny7V27VrPWuB1dXXq1q2boqK+TUt37dqlAQMGqKSkRE899ZTKy8vVr18/LVy40HMPYXvq6+v19NNP\n66233pLL5VJaWppeeukl9enTRytXrlRFRYU2bNjQYr+HH35YSUlJWrJkiSSpuLhYCxYs6NTTNzvr\nipYTBAAAgDlsNptsNlur2/Py8lRZWaldu3bpww8/VEFBQYfHa3pkfGFhoQYNGqTKykpP0t103M2b\nN6uyslJvv/22tm7dqoKCAi1cuFCVlZWqrKzUuHHjPGNXVlZqwIABqqqqksPh0IMPPqhDhw7pzTff\n7PBDQJPc3Fzt379fxcXF+uyzzzR9+nSdOXPGM5+Ovj/+ROIN+FFnlhZC8CFu5iJ2ZiJuwcVutyst\nLU0HDhzo9D6dWSTv+uuvV1pamg4ePNjh/uvXr9fEiRM1ffp0RUVFKTk5WTNmzOhwjOPHj2vTpk3K\ny8tTUlKSYmJiNHXqVA0ePLhT8/RhsT+vkHgDAADAk3QeO3ZMxcXFSk1N7dLjfvrppyotLdWIESNa\n9Ln8SvP+/fs1ZswYr8f67LPPFBkZqeHDh/s2WT8j8Qb8KFzqFkMNcTMXsTMTcQs8t9utRYsWafDg\nwRo2bJiuuuoq3XvvvV1y3MzMTF1zzTXKzMzUfffd16k67ZqaGs/DGd944w2lpKR0ajnqmpoa2e12\nT3vs2LEaNGiQVq9e7fub6EIk3gAAAGHOZrN5bjw8dOiQEhISPDcZXulxN23apEOHDmnv3r1avHhx\np+qo+/bt63lK+syZM1VcXKzz5893ar/Tp0972n/+8581efJkXbzY8UpvERERLebW2bryziLxBvyI\nukUzETdzETszEbfgEh8frxkzZugPf/hDwOYwfPhwffTRR552Z2uvb7jhBl24cKHVOvKO9OrVq1mC\n7nK51LNnT6+P0x6WEwQAALBAj0H9NWbrOr8evzNcLpfq6+s97cjISEl/T27r6uq0bds2DRkypOsn\n2YbLE+u5c+dq/PjxeueddzR58mRVVVV1+kr5vffeq8WLF2vDhg3q3bu3jh07pmuvvdbTp7GxUefP\nn/eMabPZFBMTo5tvvllr1qzRgw8+qNjYWL355pu66aabuvR9kngDfkTdopmIm7mInZnCJW49k4Pj\nATfZ2dnKzs72tJtWC8nJydGSJUsUExOjtLQ05eXldXisS9fxbmhoUHJycrN1vDvr8qQ6OTlZGzdu\n1NNPP6358+erf//+WrVqVaeOtWLFCuXm5io9PV02m01paWme92iz2bR161Zt3bq12VgfffSR7rzz\nTv3lL3/RhAkT1NDQoAkTJmjNmjVevY+O2Nz+XjfFS0VFRRo1alSgp+EXlV+dsPwBOp/MfMyy8cZs\nXac+t4Rm7AAA8EZ1dXWnbgaEudqKcVlZmTIyMlrdhxpvwI+oWzQTcTMXsTMTcUO4IPEGAABAq9as\nWaPk5OQW/5oe9261Xbt2tTqf6dOnB2Q+3qLGG/CjcKlbDDXEzVzEzkzELXgtXLhQCxcuDPQ0PMaN\nG6fKyspAT8NnJN4A0EXOVR5V3ZGjlo3XY1Bw3KgFAOgcEm/Aj0pKSriSYyBf41Z35Kj23DXfDzNq\n3Zit60i8L8M5Z6ZQjFtkZKTOnTvX5etAI/Dcbvf/3979x1R93X8cf124RUTgwrhBa/nSlpm0tXVr\npG4Om/0iNFnXbH8s/Ta5Oss6u3bapVaj65aSFGxInducjta6bKapy5206Y+kadPNkvSPq4apRE31\nq1+cQdYWYQhcMPy4XLjfP4z3W4WrfD70nnsPPB9/ce7n87nnwCvHvnvu+dyPenp6lJWV5fhaCm8A\nAIAvWHFxsbq6utTX15fqoSRVOBy+6hHts0EsFpPP51Nubq7jaym8gSSaaSs4swW52Yvs7DQTc/N4\nPJo/f36qh5F0fGWiM3yrCQAAAGAAhTeQRHw3rZ3IzV5kZydysxfZOUPhDQAAABhA4Q0k0Uzctzgb\nkJu9yM5O5GYvsnPG9c2VBw8eVGNjoyRp9erVKi8vT3hua2urdu/erbGxMZWWluqZZ55x2y0AAABg\nJVcr3tFoVMFgUFu2bFFNTY1effXVhOeOj4+roaFBjz/+uLZv3641a9a4HStgHfa+2Ync7EV2diI3\ne5GdM64K79bWVpWUlCg/P19+v19+v19tbW2Tnnvu3Dnl5+frjjvukCTl5eW5HiwAAABgK1dbTcLh\nsAoLC7V//37l5ubK5/Ml/IL47u5u5eTkqL6+XuFwWJWVlXrggQemNWjAFux9sxO52Yvs7ERu9iI7\nZ6b1AJ2qqipJUnNzc8JzRkdHdebMGf3ud79TTk6Onn32Wd17770qLi6eTtcAAACAVVxtNSkoKFBv\nb2+8fWUFPNG5JSUlKioq0ty5c1VWVqZPP/30uu//+f1CoVBoRrVnulT/fdOtvWvXrrQaD+2pta+8\n5vT6cDgsk8LhcFr8vdKpvWvXrrQaD+2pta+de6keD+3k/3s509uJeGKxWOyGZ10jGo1q/fr1qq+v\nVyQSUV1dnXbu3ClJCgaDkqRAICBJGhwc1IYNG/Tb3/5W2dnZ+uUvf6mNGzcmfMRoU1OTli5d6nRI\nVmg/d1Gv//mwsf4ClYU6sdLcN8gse7NBRStmZnZuhUIhPoazkNvcLh5o0eEfPZWEEU2OOTcRc85O\n5GYvspuopaVFlZWVkx7zunlDr9erQCCgmpoaSVJ1dXX82LV7vXNyclRdXa26ujqNjY3p/vvvT1h0\nAzMN/xjZidzsRXZ2Ijd7kZ0zrgpvSaqoqFBFRcWE19euXTvhteXLl2v58uVuuwIAAACsx5MrgSSa\nyn4vpB9ysxfZ2Ync7EV2zlB4AwAAAAZQeANJxN43O5GbvcjOTuRmL7JzhsIbAAAAMIDCG0gi9r7Z\nidzsRXZ2Ijd7kZ0zFN4AAACAARTeQBKx981O5GYvsrMTudmL7Jyh8AYAAAAMoPAGkoi9b3YiN3uR\nnZ3IzV5k5wyFNwAAAGAAhTeQROx9sxO52Yvs7ERu9iI7Z7ypHgDgxoWBEXUORIz1Nz8vSwvy5hjr\nDwAAzDwU3rBS50BEm94/a6y/bQ8uclV4h0IhVgMsRG72Ijs7kZu9yM4ZtpoAAAAABlB4A0nEKoCd\nyM1eZGcncrMX2TlD4Q0AAAAYQOENJBHfb2oncrMX2dmJ3OxFds5QeAMAAAAGUHgDScTeNzuRm73I\nzk7kZi+yc4bCGwAAADCAwhtIIva+2Ync7EV2diI3e5GdMxTeAAAAgAGuC++DBw/q6aef1tNPP62j\nR4/e8PyhoSE98cQTevfdd912CViHvW92Ijd7kZ2dyM1eZOeMq0fGR6NRBYNB1dfXKxKJqLa2VuXl\n5de95q233lJZWZk8Ho+rgQIAAAA2c7Xi3draqpKSEuXn58vv98vv96utrS3h+Z999pn6+/tVVlam\nWCzmdqyAddj7ZidysxfZ2Ync7EV2zrgqvMPhsAoLC7V//34dOnRIPp9PfX19Cc8PBoN6+OGHXQ8S\nAAAAsJ2rrSZXVFVVSZKam5sTnnPkyBHdfPPN8vv9abnafWFgRJ0DESN9zRtLv98fycXeNzuRm73I\nzk7kZi+yc8ZV4V1QUKDe3t54+8oK+GTOnj2r5uZmHTlyRP39/crIyFBhYeF1gwqFQvHjVz7CSFb7\nfz/5j1448J+p//LTsGPFLUb6SaVk53WlnVf21ST+FomZ+v1o29kOh8MyKRwO638M/ntJmzZt2rSn\n1k7EE3OxDB2NRrV+/fr4zZV1dXXauXOnpMvbSiQpEAhMuO6NN97Q3Llz9dBDDyV876amJi1dutTp\nkFw7/tmANr1/1khfO1bcovf2thjpS5IClYU6sfIZY/0te7NBRSvMZGcyN0na9uAifXVhnuPrQp8r\nimAPt7ldPNCiwz96KgkjmpzJOWcL5pydyM1eZDdRS0uLKisrJz3mdfOGXq9XgUBANTU1kqTq6ur4\nsevt9QYAk8K9gwr3Djm+zjdvodrPXXR8XXZ0zPE1AIDZw1XhLUkVFRWqqKiY8PratWsTXsMNlpht\nWAVIrXDvkF7/82Fj/QUqJ99yB3OYc3YiN3uRnTM8uRIAAAAwgMIbSKIrN1sAMIM5ZydysxfZOUPh\nDQAAABhA4Q0kEXvfALOYc3YiN3uRnTMU3gAAAIABFN5AErH3DTCLOWcncrMX2TlD4Q0AAAAYQOEN\nJBF73wCzmHN2Ijd7kZ0zFN4AAACAARTeQBKx9w0wizlnJ3KzF9k5Q+ENAAAAGEDhDSQRe98As5hz\ndiI3e5GdM95UDwDA7HJhYESdAxEjfc0bixnpBwCAqaDwBpIoFAqxGnCNzoGINr1/1khfO1bcYqQf\npA/mnJ3IzV5k5wxbTQAAAAADKLyBJGIVADCLOWcncrMX2TlD4Q0AAAAYQOENJBHfbwqYxZyzE7nZ\ni+ycofAGAAAADKDwBpKIvW+AWcw5O5GbvcjOGQpvAAAAwAAKbyCJ2PsGmMWcsxO52YvsnJnWA3QO\nHjyoxsZGSdLq1atVXl4+6Xk9PT3avn27BgcH5fV6tXLlSn3lK1+ZTtcAAACAVVwX3tFoVMFgUPX1\n9YpEIqqtrU1YeGdmZurxxx9XaWmpuru79dxzz+mVV15xPWjAFux9A8xiztmJ3OxFds64LrxbW1tV\nUlKi/Px8SZLf71dbW5tuu+22Cef6fD75fL74edFoVNFoVF4vT6wHACCZLgyMqHMgYqSv+XlZWpA3\nx0hfgI1cV77hcFiFhYXav3+/cnNz5fP51NfXd8Prjh07prKyMopuzAqhUIjVAMAg5txEnQMRbXr/\nrJG+tj24yFXhTW72Ijtnpn1zZVVVlb7xjW9M6dy+vj7t3btXa9asmW63AAAAgFVcF94FBQXq7e2N\nt6+sgCcSiUT0+9//XqtXr1ZxcfF13/vzd8iGQqGktsPh8HXHAmeSnde1bdPcjM/k38OGtsk5Fx2L\nGutLunzvi0nhcDjleaZb+/PSYTzp1Dbh8/Pbyfjuv//+lP99aLtrX1ntTpfxpEs7EU8sFovd8KxJ\nRKNRrV+/Pn5zZV1dnXbu3ClJCgaDkqRAICBJisVi2rFjhxYvXqwHHnjguu/b1NSkpUuXuhmSK8c/\nGzD2EdyOFbfovb0tRvqSpEBloU6sfMZYf8vebFDRCjPZmcxNuvzx6VcX5hnrbyZjzn1xTM452Mvk\nnOPfSkBqaWlRZWXlpMdcr3h7vV4FAgHV1NRoy5Ytqq6ujh/r6+u7ar/3mTNn1NzcrA8//FCbN2/W\n5s2bp7QfHLCd6dUmYLZjztmJ3OxFds5M6w7HiooKVVRUTHh97dq1V7XvvPNO/e1vf5tOVwAAAIDV\neHIlkETc6Q2YxZyzE7nZi+ycofAGAAAADKDwBpKIvW+AWcw5O5GbvcjOGQpvAAAAwAAKbyCJ2PsG\nmMWcsxO52YvsnKHwBgAAAAyg8AaSiL1vgFnMOTuRm73IzhkKbwAAAMAACm8gidj7BpjFnLMTudmL\n7JyZ1pMrAQAAAKcG2zs09O8OI33N/a+blVN6s5G+boTCG0iiUCjEagBgEHPOTuRmL7fZDf27Q4d/\n9FQSRjTRsjcbKLwBAMDMkh+Lqf3cRcfX+eYtdHdd4Vz5CnMcXwekCoU3kESs4ABmMedSa7h/WO/t\nbTHW33+vWUbhnWLMOWcovAEAgJXmDg/o4oHz5vpLo73CsBOFN5BEbva+mbzhROI/JJhZ3O43na03\netlutKNTJ1Y+Y6y/dNornC7Yn+8MhTeQZkzecCLxHxJAmr03egEwi+/xBpKIVQDALOYcYBZzzhlW\nvAEAANLMhYERdQ5EjPU3Py9LC/LmGOtvtqLwBpKIvW+AWcw5zBSdAxFtev+ssf62PbjIVeHNnHOG\nrSYAAACAAax4A1Pg9qEQpQvvcnxddnTMcT9AstnysTcrb4BZzDlnKLyBKTD5UIhAZaGRfgAnbPnY\nG4A7bheY3Jqti0yuC++DBw+qsbFRkrR69WqVl5d/IecCAOC2CAiHw/L5fI6vm61FAHCF6aeOztZF\nJleFdzQaVTAYVH19vSKRiGpraxMW007OBQBAoggAMDO5urmytbVVJSUlys/Pl9/vl9/vV1tb27TP\nBQAAAGYqVyve4XBYhYWF2r9/v3Jzc+Xz+dTX1zftcwEAAICZalo3V1ZVVUmSmpubv9BzAQAAgJnG\nE4vFYk4vOn36tN555x09++yzkqTa2lpVV1fr1ltvnda5ktTU1OR0OAAAAEDaqKysnPR1VyveixYt\n0ieffKL+/n5FIhFdvHgxXkgHg0FJUiAQuOG5TgYKAAAA2MxV4e31ehUIBFRTUyNJqq6ujh+7dv/2\n9c4FAAAAZgtXW00AAAAAOOPq6wQBAAAAOEPhDQAAABgwra8TBPD/uru7ddNNN8nn86m9vV2nT5+W\n3+/X0qVLUz00JNDd3a3s7Gzl5uZe9fqlS5c0MjKioqKiFI0MUzE+Pq5//etf6urqksfjUXFxsb78\n5S/L4/GkemgAMClWvNPchQsX9MEHH2jr1q2pHgqu46233tKWLVv061//Wq+//rpeeeUVdXd364MP\nPtCrr76a6uEhgW3btikajU54fXR0VC+++GIKRoSp6urq0saNG7V3714dPXpUR44c0WuvvaYNGzao\nq6sr1cNDAqdPn47/3NPTc9Wxw4cPmx4OHDh69Gj858HBwRSOxG6seKeZ4eFhffzxxzp27JiOHz+u\nnp4eVVVV8TWLae7AgQPavn27hoeH9eSTT+pPf/qTsrOzNT4+rk2bNqV6eEhgdHRUBQUFE14vLCyc\ntCBH+tizZ49++tOf6p577rnq9Y8//lh79uyJPzsC6WXPnj36zW9+I0l68cUX4z9L0htvvKFly5al\nami4gcbGRpWXl0uSnn/++auyw9Sx4p1GamtrVVNTo5aWFt11112qq6tTcXGxqqurdd9996V6eLiO\nzMxMZWRkKCcnRwsWLFB2drYkKSMjQ5mZmSkeHRLJzc3VmTNnJrx++vTpCdtPkF56enomFN2SdM89\n90xYSQWAdMGKdxrJyMhQNBpVNBrV2NiYxsfHUz0kTFFnZ2d8a0JXV9dV2xT42Dt9Pfnkk2poaNBN\nN92k+fPnS7qc5fDwsH7xi1+keHS4nosXL2rPnj2THqPwBr544+PjunTpkmKxWPznz2OxYmr4Hu80\nMzIyolOnTun48eM6fvy4urq6VFlZqbvvvltf//rXUz08JHDy5MmExzwejxYvXmxwNHCqra0t/j9I\nxcXFuu2221I7INzQRx99dN3j3/72t42MA8488sgjmjNnjiQpEokoKysrfiwSiWjfvn2pGhpuYN26\ndQmPeTweNTQ0GByNvSi801x3d7eOHTumEydOaMOGDakeDgAAAFyi8AYAAAAM4OZKAAAAwAAKbwAA\nAMAACm8AAADAAApvAMAEGzdu1KlTp1I9DACYUbi5EgAsdfLkSTU0NGjXrl2pHgoAYApY8QYAAAAM\nYMUbANJYR0eHXn75ZbW3tys7O1vf//739YMf/EA//vGPFYvFNDo6Gn8gyVNPPaWvfe1rki4/YKap\nqUlLlizR3//+d0mXt48sXrxYf/jDH3Ty5EkNDw/r1ltv1c9+9jOVlpZKkv7617/qH//4h0ZGRvTc\nc89pyZIl8bG89NJLysjIUEdHh86fP6/ly5fr5z//ueG/CADYi0fGA0Aaa2xs1O23364tW7ZocHBQ\n7e3tkqS9e/fq1KlT+uMf/5hwq0l7e7uWLFmi3bt369KlS4pEIpKk22+/XY899pjy8vIUDAb10ksv\naevWrZKkVatWadWqVVq3bp08Hs+E9zxx4oReeOEFxWIxbdy4UVVVVVq0aFGSfnsAmFnYagIAaSwj\nI0O9vb3q6elRTk6O7rzzzvixG31gmZWVpYcfflher1cFBQUqLi6WJP3whz9Ufn6+PB6PvvWtb+n8\n+fNTGovH49F9992noqIi+f1+lZaWqqOjw/0vBwCzDCveAJDGVq1apX379ulXv/qV5syZo0AgoOXL\nl0/p2uLi4gmr1uPj49q3b58OHTqkS5cuaXx8XLFYTLFYbNIV7mvNmzcv/rPX69Xo6KizXwgAZjEK\nbwBIY1/60pe0du1aSdKHH36o3bt3xwvvGxXKmZmZE14LhUI6fPiwnn/+eRUVFen8+fPavHnzlAtv\nAIB7bDUBgDT2z3/+Uz09PfF2Tk5O/OeCggL19/crHA5P+f2Gh4eVlZWlefPmaWhoSG+//XbCc6/d\nysK9+AAwPax4A0AaO3funP7yl79oaGhICxYs0Lp16+LHFi5cqO9+97vatGmTMjMztWbNGpWXl8eP\nT7aC/c1vflPHjh3TE088ofz8fH3ve9/ToUOHJF3ehvLoo4/K4/EoEolo69atysjI0E9+8hN95zvf\nkcfjYVUcAKaBrxMEAAAADGCrCQAAAGAAhTcAAABgAIU3AAAAYACFNwAAAGAAhTcAAABgAIU3AAAA\nYACFNwAAAGAAhTcAAABgAIU3AAAAYMD/Abd+FOUFzJepAAAAAElFTkSuQmCC\n",
"text": [
"<matplotlib.figure.Figure at 0x7e6ab50>"
]
}
],
"prompt_number": 121
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"# Gaussian mixture model"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"def build_model_vars(name, values, outlier_prob):\n",
" \"\"\" Build dristribution objects for a gaussian mixture model of data\n",
" \n",
" Parameters\n",
" ----------\n",
" \n",
" name : str\n",
" postfix for variable names\n",
" \n",
" values : ndarray\n",
" 1d array of values to model\n",
" \n",
" outlier_prob : pymc.Distribution\n",
" a-prioriy distribution of parameter for bernoulli var\n",
" that determines if a value is an outlier\n",
" \n",
" Return\n",
" ------\n",
" \n",
" dict of names to distributions\n",
" \"\"\"\n",
" values = np.asarray(values)\n",
" \n",
" # Some estimtes for the parameters. For faster\n",
" # convergence only.\n",
" num_values = len(values)\n",
" data_loc = np.median(values)\n",
" data_scale = sm.robust.stand_mad(values)\n",
" guess_outlier = np.abs(values - data_loc) > 1.5 * data_scale\n",
" \n",
" outlier = pm.Bernoulli('outlier_' + name, p=outlier_prob, size=num_values,\n",
" value=guess_outlier)\n",
" outlier_sim = pm.Bernoulli('outlier_sim_' + name, p=outlier_prob)\n",
" \n",
" outlier_dist = pm.Normal(\"outlier_dist_\" + name, mu=0,\n",
" tau=2. ** -2, size=num_values, plot=False)\n",
" outlier_dist_sim = pm.Normal(\"outlier_dist_sim_\" + name, mu=0,\n",
" tau=2. ** -2)\n",
" \n",
" true_val = pm.Uniform('true_val_' + name, lower=-6, upper=4,\n",
" value=data_loc)\n",
" \n",
" mean = outlier * outlier_dist + true_val\n",
" mean_sim = outlier_sim * outlier_dist_sim + true_val\n",
" std = pm.Uniform('std_' + name, lower=0, upper=5,\n",
" value=data_scale)\n",
" \n",
" msd_val = pm.Normal('msd_val_' + name, mu=mean, tau=1/std ** 2,\n",
" value=values, observed=True)\n",
" msd_val_sim = pm.Normal('msd_val_sim_' + name, mu=mean_sim,\n",
" tau=std ** -2)\n",
" \n",
" vars = {'outlier': outlier,\n",
" 'outlier_dist': outlier_dist,\n",
" 'true_val': true_val,\n",
" 'mean': mean,\n",
" 'std': std,\n",
" 'msd_val': msd_val,\n",
" 'msd_val_sim': msd_val_sim}\n",
" \n",
" return vars"
],
"language": "python",
"metadata": {},
"outputs": [],
"prompt_number": 122
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"burn = 20000\n",
"iters = burn + 70000\n",
"N = iters - burn\n",
"\n",
"vals = df_lac.unstack([0, -1])['beta_gal']\n",
"\n",
"# create an empty data frame to hold the samples\n",
"# of the posterior distribution of the location parameter\n",
"index_vals = itertools.product(*vals.index.levels)\n",
"\n",
"index = pd.MultiIndex.from_tuples(\n",
" list(index_vals), \n",
" names=['strain', 'medium']\n",
")\n",
"df_dist = pd.DataFrame(index=range(N), columns=index)\n",
"\n",
"outlier_prob = pm.Beta('outlier_prob', alpha=1, beta=3)\n",
"distributions = {}\n",
"\n",
"for sample_idx in vals.index:\n",
" values = vals.loc[sample_idx].dropna()\n",
" model_vars = build_model_vars(str(sample_idx), values, outlier_prob)\n",
" distributions[sample_idx] = model_vars"
],
"language": "python",
"metadata": {},
"outputs": [],
"prompt_number": 130
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"model = pm.Model(sum((d.values() for d in distributions.values()), []) + [outlier_prob])\n",
"mcmc = pm.MCMC(model)\n",
"mcmc.sample(iters, burn=burn, thin=5)"
],
"language": "python",
"metadata": {},
"outputs": [
{
"output_type": "stream",
"stream": "stdout",
"text": [
" \r",
"[****************100%******************] 90000 of 90000 complete"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n"
]
}
],
"prompt_number": 131
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"df_dist = pd.DataFrame(index=range(N / 5), columns=index)\n",
"\n",
"for sample_idx in vals.index:\n",
" true_dist = distributions[sample_idx]['true_val']\n",
" sample = mcmc.trace(true_dist).gettrace()\n",
" df_dist[sample_idx] = sample"
],
"language": "python",
"metadata": {},
"outputs": [],
"prompt_number": 137
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"# Results for group F\n",
"\n",
"in the log-domain"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"# only group F\n",
"df_dist.groupby(level=['strain'], axis=1).plot(kind='kde')"
],
"language": "python",
"metadata": {},
"outputs": [
{
"metadata": {},
"output_type": "pyout",
"prompt_number": 319,
"text": [
"strain\n",
"A Axes(0.125,0.125;0.775x0.775)\n",
"B Axes(0.125,0.125;0.775x0.775)\n",
"C Axes(0.125,0.125;0.775x0.775)\n",
"D Axes(0.125,0.125;0.775x0.775)\n",
"E Axes(0.125,0.125;0.775x0.775)\n",
"F Axes(0.125,0.125;0.775x0.775)\n",
"dtype: object"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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9kWosW7Ug6uUIhPVCwVgojh49isWLFwf1bMCuJ4fDgfvvvz/g/WA9//zzOHTo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\nJookwv5XRaixqH//Y7+tCQB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"text": [
"<matplotlib.figure.Figure at 0x3da06e50>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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844ii0wiGHL6iKPjrX/+K2tpadHV14dFHH8WHH34Iu92eVMYgCJHw9NHxP3gV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\nrq+v50qPGfZkDGjrzUFxtk1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"text": [
"<matplotlib.figure.Figure at 0x3da06b90>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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fwd25ziIcJrjZLiSMReD8Sha33norNm7ciAMHDsDlcuHUqVPYunUrbrnlllDX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\nL4XVqpkAAAAASUVORK5CYII=\n",
"text": [
"<matplotlib.figure.Figure at 0x3dab4ed0>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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IMp3gJKAD1OuSVOMLXCxWWVkZ20gAgFmSDHPFMNX+A2jHJoqTAGNxUHw+qD4Z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\nYII=\n",
"text": [
"<matplotlib.figure.Figure at 0x3db0a110>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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wxiBKtHYQQJm0FLII7NixA3a7HZs2bfL55l9XV4ctW7bgtddewy9+8YuIhyQk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\nENKPUREghJB+jIoAIYT0Y1QECCGkH/v/L2rA63X5WQoAAAAASUVORK5CYII=\n",
"text": [
"<matplotlib.figure.Figure at 0x3db29f90>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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uLOhkQaNWFOUcpk6dij179gy0FoLog5BijwOQ41JWfygpIZ1LyW5fVwDFpa74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\n",
"text": [
"<matplotlib.figure.Figure at 0x3d90d550>"
]
}
],
"prompt_number": 319
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"# Results for all groups\n",
"\n",
"in the log-domain"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"# all groups!!!!\n",
"df_dist.groupby(level=['strain'], axis=1).plot(kind='kde')"
],
"language": "python",
"metadata": {},
"outputs": [
{
"metadata": {},
"output_type": "pyout",
"prompt_number": 313,
"text": [
"strain\n",
"A Axes(0.125,0.125;0.775x0.775)\n",
"B Axes(0.125,0.125;0.775x0.775)\n",
"C Axes(0.125,0.125;0.775x0.775)\n",
"D Axes(0.125,0.125;0.775x0.775)\n",
"E Axes(0.125,0.125;0.775x0.775)\n",
"F Axes(0.125,0.125;0.775x0.775)\n",
"dtype: object"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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XHPbk1NBiytxHg+jPDYgRIYwKdDYPVKLYnojhwHEo5wWMiNvthcfthUAY/Zo8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\nPEQYY4x5xkOEMcaYZ/8AJ6fqZx/NhG8AAAAASUVORK5CYII=\n",
"text": [
"<matplotlib.figure.Figure at 0x2de8e310>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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0YMOGDXjzzTfx0EMPxbyRhBAih2+JqNgxJ6DBjmGjTQzv3bsXCxYs6DL0k5aW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\nLJPTtbbRAAAAAElFTkSuQmCC\n",
"text": [
"<matplotlib.figure.Figure at 0x2d701c90>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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vy8e5cybCadbNnDkT+/bty7YWghCccDCI/U+9gvpnf4Zxv3kAxQ112PHjJxCR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\nygAAAABJRU5ErkJggg==\n",
"text": [
"<matplotlib.figure.Figure at 0x2db07a10>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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ms8VUc4oQEj2cnAtaxrqYYo2gQeo33ngD33zzDW644Qa0t7cDACwWC/7+979H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\nUSTDYn+jVJlcHIee7xuRmCt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w2+1obW31WRyA8P8DCSGEhEfRFgTgnua6bds2AMDdd9+N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\nIYQQn6hAEEII8en/B/8xUL98Ar39AAAAAElFTkSuQmCC\n",
"text": [
"<matplotlib.figure.Figure at 0x2f3b92d0>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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4AVpbWwEAJSUl+NOf/qSpOBZhofeZBY0A6VQblnT23QUO0D6tJEu+9nyrNWid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\nzoEgCIIIg5wDQRAEEQY5B4IgCCKM/w8TQy+6lbKBlwAAAABJRU5ErkJggg==\n",
"text": [
"<matplotlib.figure.Figure at 0x2f3de410>"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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MTWJzBd0X7BCVQKxbtw4+nw+XXHIJZDIZJBIJGIYhL4IHXF5m2ByEWi6FUyQh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\nDrzeHR6PBzU1NXj22WdRXV2NN998k09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"text": [
"<matplotlib.figure.Figure at 0x2f5a9710>"
]
}
],
"prompt_number": 313
},
{
"cell_type": "markdown",
"metadata": {},
"source": [
"# Stuff (Model checking??)"
]
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"mcmc.summary()"
],
"language": "python",
"metadata": {},
"outputs": [
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
"outlier_('D', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.002 0.048 0.002 [ 0. 0.]\n",
"\t0.015 0.123 0.006 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.152 0.359 0.03 [ 0. 1.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.002 0.045 0.001 [ 0. 0.]\n",
"\t0.002 0.048 0.002 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.001 0.033 0.001 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.007 0.083 0.004 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.999 0.03 0.001 [ 1. 1.]\n",
"\t0.002 0.04 0.002 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.002 0.049 0.002 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_sim_('A', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.061 0.24 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_dist_sim_('F', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.026 1.984 0.016 [-4.015 3.72 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.897 -1.324 0.046 1.372 3.866\n",
"\t\n",
"\n",
"outlier_dist_sim_('A', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.007 1.999 0.014 [-3.834 3.942]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.91 -1.345 -0.016 1.333 3.877\n",
"\t\n",
"\n",
"outlier_('F', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.001 0.034 0.001 [ 0. 0.]\n",
"\t0.006 0.074 0.003 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.005 0.067 0.003 [ 0. 0.]\n",
"\t0.008 0.091 0.004 [ 0. 0.]\n",
"\t0.025 0.157 0.007 [ 0. 0.]\n",
"\t0.002 0.04 0.001 [ 0. 0.]\n",
"\t0.002 0.045 0.002 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.01 0.102 0.006 [ 0. 0.]\n",
"\t0.002 0.04 0.001 [ 0. 0.]\n",
"\t0.907 0.29 0.024 [ 0. 1.]\n",
"\t0.006 0.08 0.004 [ 0. 0.]\n",
"\t0.002 0.047 0.001 [ 0. 0.]\n",
"\t0.014 0.116 0.004 [ 0. 0.]\n",
"\t0.021 0.145 0.007 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.018 0.135 0.007 [ 0. 0.]\n",
"\t0.002 0.045 0.001 [ 0. 0.]\n",
"\t0.006 0.076 0.004 [ 0. 0.]\n",
"\t0.025 0.155 0.009 [ 0. 0.]\n",
"\t0.0 0.012 0.0 [ 0. 0.]\n",
"\t0.006 0.075 0.003 [ 0. 0.]\n",
"\t0.004 0.065 0.003 [ 0. 0.]\n",
"\t0.0 0.012 0.0 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.01 0.099 0.005 [ 0. 0.]\n",
"\t0.014 0.119 0.006 [ 0. 0.]\n",
"\t0.002 0.043 0.001 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.008 0.089 0.004 [ 0. 0.]\n",
"\t0.003 0.053 0.002 [ 0. 0.]\n",
"\t0.007 0.086 0.003 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"true_val_('D', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.471 0.017 0.0 [ 0.438 0.504]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.437 0.46 0.471 0.482 0.503\n",
"\t\n",
"\n",
"outlier_('E', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.01 0.099 0.004 [ 0. 0.]\n",
"\t0.01 0.101 0.004 [ 0. 0.]\n",
"\t0.009 0.095 0.004 [ 0. 0.]\n",
"\t0.011 0.106 0.004 [ 0. 0.]\n",
"\t0.005 0.068 0.002 [ 0. 0.]\n",
"\t0.01 0.099 0.004 [ 0. 0.]\n",
"\t0.007 0.085 0.003 [ 0. 0.]\n",
"\t0.014 0.119 0.005 [ 0. 0.]\n",
"\t0.015 0.123 0.005 [ 0. 0.]\n",
"\t0.017 0.13 0.006 [ 0. 0.]\n",
"\t0.027 0.161 0.008 [ 0. 0.]\n",
"\t0.013 0.114 0.004 [ 0. 0.]\n",
"\t0.077 0.267 0.011 [ 0. 1.]\n",
"\t0.03 0.171 0.009 [ 0. 0.]\n",
"\t0.021 0.144 0.006 [ 0. 0.]\n",
"\t0.15 0.357 0.019 [ 0. 1.]\n",
"\t0.023 0.15 0.01 [ 0. 0.]\n",
"\t0.011 0.105 0.004 [ 0. 0.]\n",
"\t0.046 0.21 0.012 [ 0. 0.]\n",
"\t0.208 0.406 0.021 [ 0. 1.]\n",
"\t0.032 0.177 0.009 [ 0. 0.]\n",
"\t0.013 0.111 0.005 [ 0. 0.]\n",
"\t0.063 0.243 0.015 [ 0. 1.]\n",
"\t0.977 0.15 0.007 [ 1. 1.]\n",
"\t0.013 0.112 0.005 [ 0. 0.]\n",
"\t0.012 0.11 0.005 [ 0. 0.]\n",
"\t0.018 0.133 0.008 [ 0. 0.]\n",
"\t0.014 0.119 0.006 [ 0. 0.]\n",
"\t0.011 0.107 0.004 [ 0. 0.]\n",
"\t0.008 0.091 0.003 [ 0. 0.]\n",
"\t0.015 0.121 0.006 [ 0. 0.]\n",
"\t0.002 0.048 0.001 [ 0. 0.]\n",
"\t0.005 0.068 0.002 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_sim_('D', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.061 0.239 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"std_('B', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.761 0.108 0.003 [ 0.559 0.975]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.577 0.685 0.752 0.827 1.003\n",
"\t\n",
"\n",
"true_val_('D', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.072 0.02 0.0 [ 0.034 0.112]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.033 0.058 0.071 0.085 0.112\n",
"\t\n",
"\n",
"outlier_sim_('B', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.061 0.24 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"true_val_('B', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.341 0.019 0.0 [ 0.302 0.378]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.303 0.328 0.34 0.353 0.379\n",
"\t\n",
"\n",
"outlier_dist_sim_('D', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.003 1.992 0.016 [-3.873 3.905]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.873 -1.326 0.006 1.334 3.905\n",
"\t\n",
"\n",
"true_val_('C', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.232 0.103 0.003 [-2.438 -2.032]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.437 -2.298 -2.232 -2.166 -2.03\n",
"\t\n",
"\n",
"std_('F', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.14 0.02 0.0 [ 0.104 0.18 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.107 0.126 0.138 0.152 0.185\n",
"\t\n",
"\n",
"outlier_('C', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.014 0.119 0.004 [ 0. 0.]\n",
"\t0.007 0.083 0.003 [ 0. 0.]\n",
"\t0.015 0.12 0.005 [ 0. 0.]\n",
"\t0.021 0.143 0.006 [ 0. 0.]\n",
"\t0.02 0.141 0.006 [ 0. 0.]\n",
"\t0.047 0.211 0.009 [ 0. 0.]\n",
"\t0.891 0.312 0.024 [ 0. 1.]\n",
"\t0.011 0.104 0.003 [ 0. 0.]\n",
"\t0.035 0.184 0.011 [ 0. 0.]\n",
"\t0.02 0.14 0.006 [ 0. 0.]\n",
"\t0.011 0.104 0.004 [ 0. 0.]\n",
"\t0.015 0.123 0.007 [ 0. 0.]\n",
"\t0.013 0.115 0.004 [ 0. 0.]\n",
"\t0.011 0.104 0.004 [ 0. 0.]\n",
"\t0.017 0.13 0.008 [ 0. 0.]\n",
"\t0.011 0.106 0.004 [ 0. 0.]\n",
"\t0.422 0.494 0.032 [ 0. 1.]\n",
"\t0.536 0.499 0.037 [ 0. 1.]\n",
"\t0.021 0.142 0.006 [ 0. 0.]\n",
"\t0.006 0.077 0.003 [ 0. 0.]\n",
"\t0.013 0.113 0.004 [ 0. 0.]\n",
"\t0.021 0.145 0.007 [ 0. 0.]\n",
"\t0.009 0.094 0.003 [ 0. 0.]\n",
"\t0.08 0.271 0.013 [ 0. 1.]\n",
"\t0.014 0.116 0.004 [ 0. 0.]\n",
"\t0.034 0.182 0.01 [ 0. 0.]\n",
"\t0.019 0.138 0.005 [ 0. 0.]\n",
"\t0.082 0.275 0.016 [ 0. 1.]\n",
"\t0.008 0.088 0.003 [ 0. 0.]\n",
"\t0.01 0.097 0.004 [ 0. 0.]\n",
"\t0.03 0.169 0.007 [ 0. 0.]\n",
"\t0.009 0.096 0.003 [ 0. 0.]\n",
"\t0.012 0.11 0.004 [ 0. 0.]\n",
"\t0.008 0.087 0.003 [ 0. 0.]\n",
"\t0.011 0.104 0.004 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 1.0 1.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"true_val_('D', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.513 0.008 0.0 [ 0.497 0.528]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.497 0.507 0.513 0.518 0.528\n",
"\t\n",
"\n",
"outlier_dist_('A', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.015 2.018 0.056 [-4.032 3.904]\n",
"\t-0.035 1.992 0.044 [-3.724 4.04 ]\n",
"\t-0.004 1.962 0.067 [-3.912 3.9 ]\n",
"\t-0.049 1.94 0.066 [-3.861 3.912]\n",
"\t0.304 1.974 0.058 [-3.553 4.052]\n",
"\t-0.022 2.206 0.22 [-3.504 3.268]\n",
"\t0.047 1.951 0.156 [-3.673 4.055]\n",
"\t-0.024 1.924 0.069 [-3.766 3.774]\n",
"\t0.035 2.062 0.171 [-3.789 4.136]\n",
"\t0.32 1.947 0.168 [-3.462 4.426]\n",
"\t-0.732 2.015 0.173 [-4.692 3.13 ]\n",
"\t0.142 2.028 0.134 [-3.599 4.284]\n",
"\t-0.046 1.981 0.038 [-3.922 3.751]\n",
"\t0.122 1.844 0.138 [-3.431 3.626]\n",
"\t0.203 2.0 0.167 [-3.97 3.678]\n",
"\t-0.142 2.006 0.079 [-3.985 3.927]\n",
"\t0.128 1.983 0.133 [-3.954 4.015]\n",
"\t0.262 1.866 0.129 [-3.554 3.769]\n",
"\t0.113 0.278 0.027 [-0.405 0.678]\n",
"\t0.173 2.016 0.106 [-3.58 4.402]\n",
"\t0.027 1.934 0.06 [-3.798 3.679]\n",
"\t0.063 1.992 0.041 [-3.804 4.012]\n",
"\t0.151 1.911 0.116 [-3.551 3.89 ]\n",
"\t-0.179 2.006 0.162 [-4.094 3.825]\n",
"\t-0.083 1.994 0.048 [-3.995 3.722]\n",
"\t0.01 1.901 0.115 [-3.629 3.82 ]\n",
"\t0.322 2.039 0.172 [-3.493 4.454]\n",
"\t-0.128 2.092 0.079 [-4.327 3.983]\n",
"\t0.669 1.803 0.16 [-2.771 4.022]\n",
"\t0.218 1.997 0.147 [-3.781 3.902]\n",
"\t0.068 2.015 0.106 [-4.126 3.963]\n",
"\t-0.175 1.988 0.125 [-4.217 3.615]\n",
"\t0.217 2.1 0.151 [-3.717 4.464]\n",
"\t-0.117 2.035 0.158 [-3.988 4.24 ]\n",
"\t-0.1 1.936 0.111 [-4.005 3.671]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.94 -1.334 0.049 1.365 4.013\n",
"\t-3.88 -1.393 -0.047 1.297 3.907\n",
"\t-3.878 -1.279 0.005 1.276 3.993\n",
"\t-3.854 -1.327 -0.103 1.234 3.924\n",
"\t-3.745 -1.027 0.464 1.705 3.905\n",
"\t-3.551 -2.183 0.639 1.944 3.238\n",
"\t-3.858 -1.248 -0.057 1.391 3.947\n",
"\t-3.766 -1.301 -0.066 1.284 3.777\n",
"\t-3.949 -1.394 0.019 1.42 4.043\n",
"\t-3.465 -0.951 0.24 1.513 4.426\n",
"\t-4.522 -2.126 -0.836 0.61 3.332\n",
"\t-3.792 -1.212 0.102 1.504 4.104\n",
"\t-3.876 -1.382 -0.029 1.287 3.815\n",
"\t-3.366 -1.148 0.078 1.419 3.718\n",
"\t-4.062 -1.145 0.438 1.629 3.647\n",
"\t-4.021 -1.52 -0.219 1.219 3.912\n",
"\t-3.827 -1.129 0.218 1.399 4.166\n",
"\t-3.507 -0.955 0.261 1.552 3.844\n",
"\t-0.452 -0.065 0.122 0.299 0.644\n",
"\t-3.763 -1.191 0.184 1.47 4.292\n",
"\t-3.689 -1.306 0.009 1.343 3.824\n",
"\t-3.788 -1.259 0.052 1.362 4.065\n",
"\t-3.659 -1.157 0.167 1.496 3.785\n",
"\t-3.854 -1.562 -0.322 1.094 4.14\n",
"\t-3.967 -1.412 -0.074 1.248 3.767\n",
"\t-3.653 -1.269 0.013 1.27 3.81\n",
"\t-3.247 -1.062 0.226 1.558 4.844\n",
"\t-4.322 -1.491 -0.133 1.261 4.017\n",
"\t-2.648 -0.698 0.644 1.961 4.203\n",
"\t-3.826 -1.088 0.37 1.607 3.868\n",
"\t-3.921 -1.249 0.044 1.374 4.206\n",
"\t-4.28 -1.503 -0.097 1.171 3.573\n",
"\t-4.087 -1.205 0.218 1.717 4.206\n",
"\t-4.259 -1.453 -0.153 1.135 4.045\n",
"\t-3.886 -1.363 -0.14 1.142 3.883\n",
"\t\n",
"\n",
"true_val_('E', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.071 0.063 0.001 [-2.196 -1.949]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.192 -2.114 -2.072 -2.03 -1.945\n",
"\t\n",
"\n",
"outlier_dist_('C', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.023 1.99 0.088 [-3.933 3.986]\n",
"\t0.332 2.029 0.152 [-4.062 4.049]\n",
"\t0.1 1.912 0.064 [-3.817 3.797]\n",
"\t0.066 1.98 0.065 [-3.665 4.086]\n",
"\t0.274 1.471 0.137 [-2.351 3.34 ]\n",
"\t0.045 2.053 0.149 [-4.117 4.015]\n",
"\t0.105 1.989 0.106 [-3.639 4.142]\n",
"\t0.059 2.045 0.182 [-4.17 4.167]\n",
"\t-0.002 1.964 0.055 [-4.063 3.593]\n",
"\t-0.518 2.007 0.156 [-4.619 3.402]\n",
"\t0.023 1.974 0.077 [-3.909 3.892]\n",
"\t-0.005 1.899 0.059 [-3.894 3.521]\n",
"\t-0.067 1.982 0.061 [-3.92 3.852]\n",
"\t0.406 1.998 0.097 [-3.29 4.536]\n",
"\t-0.072 1.902 0.111 [-3.791 3.796]\n",
"\t-0.506 1.969 0.159 [-4.182 3.558]\n",
"\t0.139 1.941 0.064 [-3.911 3.577]\n",
"\t-0.166 2.033 0.172 [-4.248 3.524]\n",
"\t-0.079 2.079 0.137 [-4.412 3.906]\n",
"\t-0.093 2.005 0.064 [-3.998 3.82 ]\n",
"\t-0.087 2.097 0.146 [-4.319 3.77 ]\n",
"\t0.13 1.972 0.072 [-3.753 4.053]\n",
"\t0.049 1.923 0.069 [-3.82 3.783]\n",
"\t0.002 2.05 0.112 [-3.84 4.108]\n",
"\t0.257 1.966 0.175 [-3.377 4.057]\n",
"\t-0.062 1.917 0.052 [-3.886 3.633]\n",
"\t0.68 1.302 0.13 [-1.446 3.142]\n",
"\t0.093 1.96 0.048 [-3.603 4.159]\n",
"\t0.047 1.957 0.073 [-3.827 3.804]\n",
"\t-0.282 2.117 0.193 [-3.924 5.112]\n",
"\t-0.724 2.173 0.205 [-5.052 3.192]\n",
"\t-0.027 1.994 0.077 [-3.952 3.934]\n",
"\t0.32 1.953 0.153 [-3.485 3.879]\n",
"\t0.008 1.933 0.047 [-3.919 3.674]\n",
"\t0.314 1.915 0.075 [-3.696 3.767]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.922 -1.303 -0.085 1.243 4.03\n",
"\t-3.731 -1.024 0.323 1.678 4.521\n",
"\t-3.772 -1.144 0.108 1.377 3.869\n",
"\t-3.88 -1.293 0.094 1.419 3.884\n",
"\t-2.275 -0.746 0.149 1.172 3.457\n",
"\t-4.004 -1.326 0.047 1.373 4.17\n",
"\t-3.706 -1.218 0.042 1.435 4.098\n",
"\t-4.609 -1.135 0.079 1.331 3.885\n",
"\t-3.913 -1.32 0.068 1.325 3.794\n",
"\t-4.515 -1.793 -0.509 0.743 3.528\n",
"\t-3.835 -1.328 0.03 1.342 4.033\n",
"\t-3.752 -1.267 0.024 1.243 3.678\n",
"\t-3.92 -1.382 -0.094 1.245 3.852\n",
"\t-3.499 -0.921 0.445 1.697 4.377\n",
"\t-3.865 -1.332 -0.03 1.181 3.731\n",
"\t-4.527 -1.78 -0.526 0.812 3.355\n",
"\t-3.911 -1.166 0.3 1.532 3.581\n",
"\t-4.101 -1.502 -0.172 1.164 3.693\n",
"\t-4.1 -1.468 -0.109 1.248 4.279\n",
"\t-4.067 -1.443 -0.08 1.282 3.775\n",
"\t-4.048 -1.52 -0.131 1.361 4.123\n",
"\t-3.776 -1.159 0.189 1.412 4.044\n",
"\t-3.759 -1.204 0.021 1.325 3.866\n",
"\t-3.758 -1.352 -0.097 1.279 4.262\n",
"\t-3.415 -1.058 0.206 1.625 4.038\n",
"\t-3.76 -1.323 -0.103 1.19 3.781\n",
"\t-1.411 -0.351 0.466 1.803 3.214\n",
"\t-3.783 -1.196 0.103 1.377 4.005\n",
"\t-3.635 -1.29 -0.002 1.348 4.007\n",
"\t-4.206 -1.623 -0.389 0.938 4.858\n",
"\t-4.964 -2.116 -0.826 0.932 3.355\n",
"\t-3.952 -1.343 -0.022 1.283 3.934\n",
"\t-3.47 -1.089 0.36 1.753 3.91\n",
"\t-3.721 -1.306 -0.001 1.312 3.881\n",
"\t-3.58 -0.972 0.476 1.627 3.895\n",
"\t\n",
"\n",
"outlier_dist_('C', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.117 2.115 0.137 [-3.995 4.191]\n",
"\t-0.075 1.957 0.107 [-4.142 3.508]\n",
"\t-0.313 2.046 0.174 [-4.221 3.839]\n",
"\t0.04 2.08 0.107 [-4.102 3.964]\n",
"\t-0.128 1.976 0.141 [-3.923 3.888]\n",
"\t-0.009 2.036 0.104 [-4.293 3.776]\n",
"\t-1.077 1.434 0.077 [-3.227 2.727]\n",
"\t-0.299 1.964 0.183 [-4.305 3.281]\n",
"\t0.013 1.855 0.128 [-3.645 3.862]\n",
"\t0.111 2.052 0.072 [-3.781 4.268]\n",
"\t0.019 1.89 0.15 [-3.681 3.835]\n",
"\t-0.263 0.824 0.08 [-1.898 1.037]\n",
"\t0.134 2.024 0.157 [-3.443 4.661]\n",
"\t1.305 0.463 0.045 [ 0.571 2.147]\n",
"\t-0.058 2.004 0.094 [-3.98 3.819]\n",
"\t-0.905 1.895 0.183 [-4.609 3.796]\n",
"\t0.018 1.9 0.102 [-3.64 3.825]\n",
"\t0.341 1.895 0.101 [-4.079 3.779]\n",
"\t1.366 0.895 0.067 [-0.538 3.087]\n",
"\t-0.067 2.007 0.075 [-3.992 3.794]\n",
"\t-0.02 2.013 0.114 [-3.937 4.118]\n",
"\t-0.046 2.054 0.106 [-3.932 4.006]\n",
"\t0.148 2.005 0.08 [-3.935 4.016]\n",
"\t-0.065 1.902 0.1 [-3.631 4.103]\n",
"\t-0.045 2.076 0.143 [-4.092 4.102]\n",
"\t0.541 2.048 0.174 [-3.397 4.943]\n",
"\t0.07 1.717 0.163 [-3.523 3.161]\n",
"\t0.017 1.963 0.095 [-4.006 3.797]\n",
"\t0.151 2.145 0.182 [-4.412 4.307]\n",
"\t-0.123 1.971 0.075 [-3.841 3.853]\n",
"\t-0.024 2.386 0.213 [-4.915 4.187]\n",
"\t0.006 2.05 0.128 [-4.078 4.104]\n",
"\t-0.519 2.509 0.246 [-5.171 4.052]\n",
"\t0.129 1.829 0.161 [-3.361 3.715]\n",
"\t0.589 1.637 0.063 [-3.053 3.647]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.929 -1.264 0.073 1.475 4.338\n",
"\t-3.96 -1.367 -0.078 1.223 3.753\n",
"\t-4.185 -1.77 -0.372 1.04 3.951\n",
"\t-4.0 -1.417 0.068 1.482 4.099\n",
"\t-4.081 -1.411 -0.112 1.119 3.819\n",
"\t-4.255 -1.307 0.084 1.341 3.845\n",
"\t-3.016 -1.852 -1.464 -0.843 2.964\n",
"\t-4.127 -1.758 -0.133 1.076 3.638\n",
"\t-4.042 -1.142 0.194 1.153 3.576\n",
"\t-3.883 -1.285 0.114 1.454 4.208\n",
"\t-3.724 -1.133 -0.09 1.232 3.809\n",
"\t-1.857 -0.8 -0.202 0.389 1.098\n",
"\t-4.29 -1.157 0.109 1.546 4.041\n",
"\t0.554 0.91 1.237 1.719 2.133\n",
"\t-4.046 -1.404 -0.02 1.283 3.801\n",
"\t-3.604 -1.862 -1.474 -0.783 5.159\n",
"\t-3.841 -1.296 0.196 1.212 3.67\n",
"\t-4.111 -0.681 0.749 1.386 3.77\n",
"\t-1.103 1.079 1.482 1.85 2.739\n",
"\t-3.96 -1.415 -0.056 1.3 3.829\n",
"\t-3.952 -1.281 -0.05 1.231 4.116\n",
"\t-3.931 -1.473 -0.08 1.323 4.007\n",
"\t-3.726 -1.186 0.126 1.45 4.249\n",
"\t-3.774 -1.247 -0.27 1.111 3.997\n",
"\t-4.163 -1.362 -0.028 1.294 4.055\n",
"\t-3.588 -0.768 0.478 1.847 4.81\n",
"\t-3.094 -1.202 0.051 1.149 3.858\n",
"\t-3.871 -1.287 -0.015 1.334 3.969\n",
"\t-4.282 -1.194 0.123 1.603 4.495\n",
"\t-3.853 -1.502 -0.169 1.214 3.849\n",
"\t-4.721 -1.586 0.018 1.675 4.548\n",
"\t-4.134 -1.329 -0.028 1.396 4.064\n",
"\t-5.295 -2.615 -0.203 1.355 3.98\n",
"\t-3.545 -0.983 0.057 1.254 3.647\n",
"\t-3.266 -0.303 1.005 1.54 3.467\n",
"\t\n",
"\n",
"outlier_dist_sim_('F', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.009 1.988 0.015 [-3.822 3.886]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.825 -1.346 0.005 1.375 3.884\n",
"\t\n",
"\n",
"outlier_dist_sim_('C', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.047 2.015 0.016 [-4.041 3.826]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.938 -1.316 0.058 1.427 3.962\n",
"\t\n",
"\n",
"outlier_sim_('E', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.064 0.245 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_dist_sim_('B', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.027 2.002 0.019 [-3.825 4.03 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.018 -1.362 -0.015 1.337 3.892\n",
"\t\n",
"\n",
"outlier_('F', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.001 0.037 0.001 [ 0. 0.]\n",
"\t0.009 0.094 0.004 [ 0. 0.]\n",
"\t0.046 0.21 0.011 [ 0. 0.]\n",
"\t0.006 0.076 0.003 [ 0. 0.]\n",
"\t0.091 0.288 0.018 [ 0. 1.]\n",
"\t0.01 0.099 0.005 [ 0. 0.]\n",
"\t0.003 0.053 0.002 [ 0. 0.]\n",
"\t0.045 0.208 0.011 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.001 0.037 0.001 [ 0. 0.]\n",
"\t0.01 0.101 0.004 [ 0. 0.]\n",
"\t0.029 0.167 0.008 [ 0. 0.]\n",
"\t0.007 0.083 0.005 [ 0. 0.]\n",
"\t0.006 0.075 0.003 [ 0. 0.]\n",
"\t0.004 0.067 0.003 [ 0. 0.]\n",
"\t0.007 0.083 0.004 [ 0. 0.]\n",
"\t0.011 0.105 0.004 [ 0. 0.]\n",
"\t0.003 0.057 0.002 [ 0. 0.]\n",
"\t0.005 0.07 0.003 [ 0. 0.]\n",
"\t0.004 0.062 0.002 [ 0. 0.]\n",
"\t0.002 0.039 0.001 [ 0. 0.]\n",
"\t0.007 0.081 0.003 [ 0. 0.]\n",
"\t0.001 0.036 0.001 [ 0. 0.]\n",
"\t0.003 0.05 0.002 [ 0. 0.]\n",
"\t0.017 0.128 0.006 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.011 0.104 0.004 [ 0. 0.]\n",
"\t0.004 0.063 0.002 [ 0. 0.]\n",
"\t0.007 0.082 0.004 [ 0. 0.]\n",
"\t0.003 0.054 0.002 [ 0. 0.]\n",
"\t0.006 0.079 0.004 [ 0. 0.]\n",
"\t0.004 0.063 0.002 [ 0. 0.]\n",
"\t0.004 0.067 0.003 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_dist_('D', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.153 1.583 0.149 [-2.899 3.239]\n",
"\t0.228 0.904 0.089 [-1.441 1.96 ]\n",
"\t-0.213 0.959 0.094 [-1.873 1.568]\n",
"\t0.836 1.733 0.171 [-2.966 3.671]\n",
"\t2.865 0.669 0.066 [ 1.54 3.907]\n",
"\t-0.673 0.141 0.014 [-0.914 -0.426]\n",
"\t0.63 0.45 0.044 [-0.169 1.479]\n",
"\t0.428 0.464 0.046 [-0.487 1.171]\n",
"\t-1.256 2.292 0.226 [-5.451 2.853]\n",
"\t-3.029 1.149 0.114 [-4.876 -1.383]\n",
"\t-1.557 2.244 0.224 [-5.121 1.872]\n",
"\t0.29 2.544 0.251 [-4.676 4.981]\n",
"\t-1.574 1.401 0.138 [-4.027 1.266]\n",
"\t-0.512 0.04 0.001 [-0.592 -0.433]\n",
"\t-0.513 0.039 0.001 [-0.589 -0.433]\n",
"\t0.161 1.262 0.123 [-1.912 2.557]\n",
"\t-0.234 0.041 0.002 [-0.318 -0.154]\n",
"\t-1.304 2.124 0.21 [-5.757 2.024]\n",
"\t-0.901 1.603 0.157 [-4.408 1.65 ]\n",
"\t2.315 0.256 0.025 [ 1.808 2.762]\n",
"\t0.993 0.109 0.011 [ 0.854 1.219]\n",
"\t-0.283 0.04 0.001 [-0.361 -0.203]\n",
"\t0.12 1.465 0.14 [-2.864 2.859]\n",
"\t-2.172 0.204 0.02 [-2.545 -1.867]\n",
"\t-0.222 0.039 0.001 [-0.3 -0.147]\n",
"\t-1.791 2.441 0.243 [-5.016 3.538]\n",
"\t-1.3 0.444 0.043 [-2.263 -0.526]\n",
"\t1.829 0.347 0.034 [ 1.157 2.493]\n",
"\t-0.563 0.039 0.003 [-0.636 -0.482]\n",
"\t1.677 1.054 0.104 [ 0.05 3.502]\n",
"\t2.161 0.118 0.011 [ 1.926 2.387]\n",
"\t0.082 1.657 0.157 [-3.048 3.451]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.829 -0.926 0.16 1.249 3.372\n",
"\t-1.419 -0.374 0.16 0.88 1.99\n",
"\t-1.932 -0.905 -0.198 0.548 1.529\n",
"\t-2.945 -0.133 0.569 2.283 3.707\n",
"\t1.654 2.376 2.893 3.322 4.334\n",
"\t-0.937 -0.781 -0.673 -0.562 -0.436\n",
"\t-0.196 0.27 0.656 0.959 1.462\n",
"\t-0.386 0.016 0.408 0.795 1.382\n",
"\t-5.425 -2.936 -1.471 0.511 2.903\n",
"\t-4.727 -4.1 -3.156 -1.933 -1.008\n",
"\t-5.26 -3.252 -2.377 0.717 1.799\n",
"\t-5.377 -1.491 0.642 2.287 4.711\n",
"\t-4.051 -2.649 -1.579 -0.649 1.249\n",
"\t-0.592 -0.538 -0.512 -0.487 -0.433\n",
"\t-0.59 -0.537 -0.513 -0.488 -0.433\n",
"\t-2.042 -0.862 0.087 1.162 2.477\n",
"\t-0.323 -0.26 -0.232 -0.205 -0.158\n",
"\t-5.693 -2.697 -0.827 0.235 2.099\n",
"\t-4.314 -1.807 -0.7 0.243 1.788\n",
"\t1.823 2.108 2.356 2.503 2.779\n",
"\t0.849 0.905 0.958 1.072 1.214\n",
"\t-0.362 -0.308 -0.282 -0.257 -0.204\n",
"\t-2.969 -0.833 0.138 1.086 2.786\n",
"\t-2.541 -2.369 -2.115 -2.006 -1.856\n",
"\t-0.299 -0.247 -0.222 -0.196 -0.146\n",
"\t-4.777 -3.854 -2.359 -0.212 4.0\n",
"\t-2.267 -1.572 -1.251 -0.997 -0.527\n",
"\t1.233 1.591 1.775 2.012 2.675\n",
"\t-0.644 -0.588 -0.561 -0.536 -0.489\n",
"\t0.051 0.771 1.563 2.658 3.505\n",
"\t1.924 2.087 2.154 2.248 2.385\n",
"\t-3.194 -0.979 0.117 1.184 3.356\n",
"\t\n",
"\n",
"outlier_dist_('D', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.382 1.986 0.148 [-4.361 3.638]\n",
"\t-0.089 2.179 0.164 [-4.183 4.259]\n",
"\t0.101 1.911 0.154 [-3.488 3.858]\n",
"\t-0.174 2.013 0.133 [-4.115 3.733]\n",
"\t-0.16 1.946 0.097 [-4.053 3.52 ]\n",
"\t0.175 2.073 0.109 [-3.957 4.317]\n",
"\t0.086 1.928 0.172 [-3.795 3.412]\n",
"\t0.907 1.389 0.134 [-1.553 3.752]\n",
"\t0.488 1.905 0.18 [-3.192 3.987]\n",
"\t-0.103 1.908 0.138 [-3.631 3.557]\n",
"\t-0.208 1.879 0.158 [-3.734 3.69 ]\n",
"\t-0.034 1.692 0.158 [-3.467 3.306]\n",
"\t-0.794 0.977 0.096 [-2.831 1.148]\n",
"\t0.003 2.208 0.206 [-4.151 4.192]\n",
"\t-0.437 0.129 0.012 [-0.685 -0.262]\n",
"\t0.0 1.931 0.073 [-3.854 3.709]\n",
"\t0.01 1.786 0.177 [-2.733 3.762]\n",
"\t0.204 0.251 0.025 [-0.399 0.564]\n",
"\t-0.029 2.021 0.096 [-4.059 3.845]\n",
"\t0.12 1.89 0.155 [-3.717 3.734]\n",
"\t-0.031 1.9 0.112 [-3.65 3.707]\n",
"\t0.435 1.571 0.138 [-2.189 4.045]\n",
"\t-0.128 2.025 0.127 [-4.019 3.74 ]\n",
"\t0.308 2.114 0.184 [-3.935 5.034]\n",
"\t-0.124 1.936 0.184 [-3.995 3.703]\n",
"\t0.054 2.044 0.114 [-4.134 3.939]\n",
"\t0.355 1.869 0.158 [-3.28 4.132]\n",
"\t0.48 1.993 0.187 [-3.412 3.975]\n",
"\t-0.65 0.089 0.001 [-0.823 -0.474]\n",
"\t-1.007 0.554 0.054 [-1.924 0.032]\n",
"\t-0.512 2.025 0.162 [-4.424 3.828]\n",
"\t2.539 1.588 0.156 [-0.877 5.035]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.981 -1.713 -0.473 0.774 4.174\n",
"\t-4.384 -1.563 -0.072 1.424 4.112\n",
"\t-3.372 -1.223 0.097 1.331 4.053\n",
"\t-4.066 -1.57 -0.216 1.222 3.792\n",
"\t-3.961 -1.525 -0.169 1.194 3.661\n",
"\t-4.073 -1.174 0.206 1.544 4.247\n",
"\t-3.756 -1.238 0.247 1.505 3.465\n",
"\t-1.447 0.009 0.743 1.63 3.917\n",
"\t-3.18 -0.733 0.503 1.8 4.017\n",
"\t-3.575 -1.487 -0.17 1.194 3.649\n",
"\t-3.819 -1.49 -0.297 1.019 3.638\n",
"\t-3.232 -1.092 -0.17 1.084 3.567\n",
"\t-2.823 -1.48 -0.822 -0.098 1.158\n",
"\t-3.958 -1.569 -0.104 1.509 4.473\n",
"\t-0.623 -0.506 -0.451 -0.389 0.012\n",
"\t-3.838 -1.293 0.025 1.316 3.765\n",
"\t-2.814 -1.395 -0.237 1.153 3.7\n",
"\t-0.409 0.09 0.249 0.396 0.556\n",
"\t-3.947 -1.4 -0.049 1.342 3.978\n",
"\t-3.676 -1.097 0.102 1.372 3.779\n",
"\t-3.755 -1.33 -0.014 1.281 3.621\n",
"\t-2.539 -0.442 0.182 1.466 3.798\n",
"\t-3.899 -1.528 -0.158 1.173 3.902\n",
"\t-4.212 -0.981 0.299 1.533 4.883\n",
"\t-3.906 -1.422 -0.146 1.055 3.831\n",
"\t-3.959 -1.327 0.05 1.422 4.135\n",
"\t-3.293 -0.879 0.306 1.506 4.131\n",
"\t-3.45 -1.003 0.548 2.029 3.951\n",
"\t-0.824 -0.709 -0.65 -0.592 -0.475\n",
"\t-1.87 -1.435 -1.074 -0.613 0.129\n",
"\t-4.304 -1.819 -0.581 0.74 4.069\n",
"\t-0.783 1.267 2.746 3.761 5.163\n",
"\t\n",
"\n",
"msd_val_sim_('D', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.515 0.497 0.004 [ 0.17 1.135]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.051 0.484 0.512 0.54 1.044\n",
"\t\n",
"\n",
"std_('B', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.108 0.015 0.0 [ 0.081 0.136]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.084 0.097 0.106 0.117 0.14\n",
"\t\n",
"\n",
"msd_val_sim_('B', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.334 0.488 0.004 [-0.034 0.733]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.151 0.263 0.342 0.421 0.692\n",
"\t\n",
"\n",
"msd_val_sim_('C', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.38 0.639 0.006 [-3.392 -1.295]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.455 -2.654 -2.379 -2.1 -1.324\n",
"\t\n",
"\n",
"outlier_dist_sim_('A', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.007 1.994 0.018 [-3.817 3.964]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.873 -1.331 0.003 1.348 3.923\n",
"\t\n",
"\n",
"msd_val_sim_('C', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.906 0.976 0.009 [-4.836 -1.075]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.806 -3.485 -2.899 -2.335 -1.036\n",
"\t\n",
"\n",
"outlier_dist_sim_('E', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.005 1.994 0.015 [-3.896 3.973]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.958 -1.33 0.015 1.348 3.933\n",
"\t\n",
"\n",
"msd_val_sim_('C', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.227 0.741 0.008 [-3.654 -0.89 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.637 -2.573 -2.223 -1.873 -0.85\n",
"\t\n",
"\n",
"outlier_dist_('E', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.068 1.944 0.127 [-3.916 3.708]\n",
"\t0.018 1.92 0.148 [-3.97 3.74]\n",
"\t-0.175 2.019 0.183 [-4.045 3.909]\n",
"\t0.102 1.955 0.062 [-3.744 3.905]\n",
"\t0.019 1.966 0.064 [-3.849 3.864]\n",
"\t-0.097 1.94 0.168 [-3.459 3.705]\n",
"\t-0.033 2.034 0.064 [-4.024 3.891]\n",
"\t0.149 2.017 0.086 [-3.737 4.273]\n",
"\t0.12 2.031 0.084 [-3.845 4.088]\n",
"\t-0.034 2.002 0.07 [-4.192 3.765]\n",
"\t0.17 1.894 0.078 [-3.578 3.811]\n",
"\t0.054 1.941 0.063 [-3.799 3.876]\n",
"\t0.023 1.864 0.055 [-3.613 3.778]\n",
"\t0.839 1.42 0.139 [-2.156 3.447]\n",
"\t-0.043 1.951 0.052 [-3.977 3.671]\n",
"\t0.324 1.681 0.108 [-3.299 3.567]\n",
"\t-0.061 2.076 0.098 [-4.164 4.013]\n",
"\t-0.019 1.996 0.054 [-3.967 3.794]\n",
"\t-1.454 1.062 0.106 [-3.13 0.316]\n",
"\t0.311 1.838 0.094 [-3.59 3.973]\n",
"\t0.046 1.934 0.062 [-3.736 3.835]\n",
"\t0.086 1.876 0.116 [-3.594 3.816]\n",
"\t0.6 1.686 0.155 [-2.612 3.743]\n",
"\t1.402 0.391 0.015 [ 0.714 2.093]\n",
"\t0.035 2.015 0.084 [-3.872 3.968]\n",
"\t-0.161 1.892 0.16 [-3.986 3.188]\n",
"\t0.42 2.07 0.124 [-3.62 4.502]\n",
"\t-0.093 2.104 0.151 [-4.079 4.428]\n",
"\t0.07 1.989 0.113 [-3.913 4.02 ]\n",
"\t0.198 2.016 0.112 [-3.781 3.986]\n",
"\t0.043 2.034 0.055 [-3.986 4.095]\n",
"\t-0.29 2.365 0.233 [-3.906 3.664]\n",
"\t-0.184 2.29 0.188 [-4.458 4.45 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.042 -1.302 -0.033 1.24 3.619\n",
"\t-3.993 -1.205 0.052 1.273 3.722\n",
"\t-5.227 -1.331 -0.062 1.184 3.469\n",
"\t-3.779 -1.179 0.127 1.392 3.9\n",
"\t-3.834 -1.293 0.01 1.328 3.912\n",
"\t-3.539 -1.544 -0.166 1.334 3.636\n",
"\t-3.999 -1.408 -0.063 1.333 3.946\n",
"\t-3.858 -1.2 0.155 1.482 4.176\n",
"\t-4.079 -1.17 0.161 1.533 3.918\n",
"\t-4.052 -1.338 -0.006 1.267 3.923\n",
"\t-3.576 -1.098 0.235 1.428 3.823\n",
"\t-3.67 -1.266 0.007 1.339 4.034\n",
"\t-3.727 -1.168 0.143 1.158 3.688\n",
"\t-2.158 -0.049 0.742 1.867 3.447\n",
"\t-3.94 -1.336 -0.006 1.285 3.775\n",
"\t-3.396 -0.662 0.523 1.335 3.508\n",
"\t-4.118 -1.482 -0.041 1.347 4.093\n",
"\t-3.911 -1.371 -0.054 1.318 3.875\n",
"\t-3.154 -2.333 -1.642 -0.421 0.307\n",
"\t-3.665 -0.739 0.566 1.262 3.939\n",
"\t-3.805 -1.193 0.007 1.355 3.784\n",
"\t-3.724 -1.135 0.064 1.392 3.752\n",
"\t-2.633 -0.566 0.499 1.908 3.737\n",
"\t0.688 1.191 1.417 1.644 2.077\n",
"\t-3.829 -1.338 -0.003 1.38 4.02\n",
"\t-4.2 -1.355 -0.021 1.161 3.073\n",
"\t-3.824 -0.867 0.389 1.799 4.371\n",
"\t-4.079 -1.459 -0.135 1.145 4.459\n",
"\t-3.842 -1.212 0.029 1.328 4.135\n",
"\t-3.809 -1.175 0.266 1.589 3.975\n",
"\t-4.017 -1.293 0.064 1.392 4.081\n",
"\t-3.961 -2.384 -0.623 1.98 3.63\n",
"\t-4.228 -1.802 -0.285 1.111 4.763\n",
"\t\n",
"\n",
"msd_val_sim_('D', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.47 0.498 0.005 [-0.029 0.826]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.004 0.408 0.471 0.532 0.865\n",
"\t\n",
"\n",
"outlier_dist_sim_('C', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.009 2.001 0.016 [-3.947 3.895]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.972 -1.35 -0.014 1.337 3.889\n",
"\t\n",
"\n",
"true_val_('F', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.263 0.026 0.0 [ 0.211 0.313]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.212 0.246 0.263 0.28 0.314\n",
"\t\n",
"\n",
"outlier_('A', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.033 0.178 0.007 [ 0. 0.]\n",
"\t0.019 0.135 0.005 [ 0. 0.]\n",
"\t0.014 0.116 0.004 [ 0. 0.]\n",
"\t0.098 0.297 0.014 [ 0. 1.]\n",
"\t0.027 0.162 0.005 [ 0. 0.]\n",
"\t0.042 0.201 0.009 [ 0. 0.]\n",
"\t0.034 0.182 0.006 [ 0. 0.]\n",
"\t0.069 0.253 0.011 [ 0. 1.]\n",
"\t0.048 0.215 0.009 [ 0. 0.]\n",
"\t0.068 0.251 0.01 [ 0. 1.]\n",
"\t0.053 0.223 0.01 [ 0. 1.]\n",
"\t0.062 0.241 0.011 [ 0. 1.]\n",
"\t0.023 0.149 0.007 [ 0. 0.]\n",
"\t0.014 0.116 0.004 [ 0. 0.]\n",
"\t0.06 0.237 0.011 [ 0. 1.]\n",
"\t0.026 0.159 0.006 [ 0. 0.]\n",
"\t0.084 0.277 0.012 [ 0. 1.]\n",
"\t0.023 0.15 0.006 [ 0. 0.]\n",
"\t0.101 0.302 0.016 [ 0. 1.]\n",
"\t0.027 0.163 0.006 [ 0. 0.]\n",
"\t0.039 0.193 0.007 [ 0. 0.]\n",
"\t0.696 0.46 0.034 [ 0. 1.]\n",
"\t0.024 0.154 0.006 [ 0. 0.]\n",
"\t0.017 0.129 0.005 [ 0. 0.]\n",
"\t0.016 0.125 0.005 [ 0. 0.]\n",
"\t0.021 0.143 0.004 [ 0. 0.]\n",
"\t0.047 0.212 0.01 [ 0. 0.]\n",
"\t0.024 0.152 0.006 [ 0. 0.]\n",
"\t0.025 0.156 0.005 [ 0. 0.]\n",
"\t0.026 0.158 0.006 [ 0. 0.]\n",
"\t0.015 0.121 0.004 [ 0. 0.]\n",
"\t0.027 0.163 0.006 [ 0. 0.]\n",
"\t0.01 0.099 0.004 [ 0. 0.]\n",
"\t0.024 0.153 0.007 [ 0. 0.]\n",
"\t0.015 0.12 0.004 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"msd_val_sim_('B', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.62 0.932 0.009 [-4.373 -0.845]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.386 -3.166 -2.62 -2.092 -0.851\n",
"\t\n",
"\n",
"outlier_dist_('B', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.315 2.12 0.151 [-4.414 3.946]\n",
"\t0.091 2.013 0.066 [-3.829 4.033]\n",
"\t0.045 2.075 0.072 [-3.841 4.273]\n",
"\t0.005 1.845 0.139 [-3.536 3.722]\n",
"\t-0.03 2.033 0.051 [-3.929 4.157]\n",
"\t0.079 1.977 0.072 [-3.82 3.962]\n",
"\t-0.109 1.921 0.145 [-3.947 3.478]\n",
"\t-0.061 1.988 0.107 [-4.204 3.732]\n",
"\t-0.124 1.966 0.105 [-4.022 3.542]\n",
"\t-0.173 2.132 0.149 [-4.328 4.129]\n",
"\t-0.344 2.065 0.166 [-4.188 4.239]\n",
"\t-0.055 2.013 0.09 [-3.977 3.834]\n",
"\t0.017 1.937 0.103 [-3.891 3.835]\n",
"\t0.202 2.059 0.157 [-3.572 4.087]\n",
"\t0.11 1.975 0.07 [-3.696 3.999]\n",
"\t-0.123 1.866 0.135 [-3.617 3.702]\n",
"\t0.012 1.958 0.055 [-3.699 3.778]\n",
"\t-0.201 1.771 0.13 [-3.706 3.405]\n",
"\t0.138 2.1 0.209 [-3.991 3.818]\n",
"\t0.069 1.998 0.057 [-3.726 4.088]\n",
"\t-1.429 1.038 0.103 [-2.965 0.407]\n",
"\t0.002 1.991 0.082 [-3.855 3.837]\n",
"\t-0.054 2.137 0.197 [-4.377 3.914]\n",
"\t0.065 1.948 0.155 [-3.869 3.779]\n",
"\t0.318 1.834 0.18 [-3.226 3.736]\n",
"\t0.18 1.982 0.066 [-3.754 3.932]\n",
"\t-0.164 1.968 0.13 [-3.804 3.91 ]\n",
"\t0.133 2.047 0.183 [-3.609 4.207]\n",
"\t-0.122 2.015 0.063 [-3.964 3.847]\n",
"\t-0.033 2.031 0.092 [-4.047 3.897]\n",
"\t0.087 2.021 0.061 [-3.779 4.007]\n",
"\t0.008 1.868 0.12 [-3.642 3.702]\n",
"\t-0.047 2.011 0.07 [-3.773 4.009]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.2 -1.738 -0.47 1.037 4.222\n",
"\t-3.88 -1.237 0.096 1.472 3.99\n",
"\t-4.112 -1.362 0.038 1.467 4.085\n",
"\t-3.523 -1.225 -0.024 1.197 3.754\n",
"\t-4.066 -1.411 -0.027 1.332 4.075\n",
"\t-3.903 -1.251 0.067 1.426 3.908\n",
"\t-3.868 -1.462 -0.138 1.254 3.586\n",
"\t-4.021 -1.378 -0.04 1.239 3.937\n",
"\t-3.851 -1.486 -0.162 1.209 3.774\n",
"\t-4.183 -1.573 -0.155 1.073 4.353\n",
"\t-4.35 -1.678 -0.45 0.906 4.105\n",
"\t-3.93 -1.439 -0.017 1.286 3.922\n",
"\t-3.857 -1.236 0.133 1.23 3.887\n",
"\t-4.024 -1.202 0.25 1.683 3.835\n",
"\t-3.679 -1.234 0.102 1.454 4.031\n",
"\t-3.686 -1.366 -0.167 1.1 3.666\n",
"\t-3.675 -1.309 -0.012 1.32 3.815\n",
"\t-3.662 -1.36 -0.212 0.946 3.493\n",
"\t-3.881 -1.142 0.093 1.441 3.978\n",
"\t-3.807 -1.292 0.022 1.417 4.039\n",
"\t-3.02 -2.316 -1.666 -0.531 0.371\n",
"\t-3.843 -1.405 0.003 1.381 3.869\n",
"\t-4.362 -1.603 -0.072 1.544 3.955\n",
"\t-3.718 -1.251 0.1 1.313 3.942\n",
"\t-3.178 -1.024 0.31 1.666 3.795\n",
"\t-3.692 -1.174 0.195 1.53 4.054\n",
"\t-3.867 -1.539 -0.185 1.09 3.866\n",
"\t-3.546 -1.298 -0.084 1.55 4.298\n",
"\t-3.985 -1.492 -0.127 1.244 3.829\n",
"\t-3.98 -1.443 -0.035 1.337 3.988\n",
"\t-3.831 -1.296 0.114 1.463 3.984\n",
"\t-3.544 -1.219 -0.055 1.154 3.86\n",
"\t-3.957 -1.412 -0.035 1.34 3.848\n",
"\t\n",
"\n",
"true_val_('C', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.915 0.147 0.002 [-3.195 -2.63 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.201 -3.013 -2.914 -2.816 -2.634\n",
"\t\n",
"\n",
"msd_val_sim_('D', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.072 0.501 0.004 [-0.391 0.527]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.412 -0.004 0.072 0.148 0.513\n",
"\t\n",
"\n",
"true_val_('A', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.881 0.171 0.003 [-3.207 -2.53 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.22 -2.993 -2.884 -2.767 -2.541\n",
"\t\n",
"\n",
"msd_val_sim_('F', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.269 0.534 0.004 [-0.445 0.845]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.366 0.162 0.265 0.367 0.969\n",
"\t\n",
"\n",
"outlier_dist_sim_('D', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.007 1.988 0.017 [-3.73 4.049]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.869 -1.359 -0.012 1.326 3.934\n",
"\t\n",
"\n",
"outlier_sim_('B', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.059 0.236 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"std_('C', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.512 0.136 0.01 [ 0.281 0.768]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.291 0.404 0.502 0.609 0.79\n",
"\t\n",
"\n",
"outlier_prob:\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.062 0.013 0.001 [ 0.036 0.088]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.038 0.053 0.061 0.071 0.09\n",
"\t\n",
"\n",
"true_val_('F', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.492 0.022 0.001 [ 0.449 0.537]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.447 0.478 0.493 0.506 0.535\n",
"\t\n",
"\n",
"outlier_dist_sim_('F', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.009 1.995 0.017 [-4.092 3.709]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.923 -1.355 0.008 1.338 3.891\n",
"\t\n",
"\n",
"std_('A', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.951 0.13 0.002 [ 0.723 1.219]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.733 0.859 0.94 1.028 1.238\n",
"\t"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
"\n",
"msd_val_sim_('A', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.888 1.087 0.01 [-5.016 -0.795]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-5.011 -3.54 -2.893 -2.231 -0.784\n",
"\t\n",
"\n",
"std_('D', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.038 0.006 0.0 [ 0.027 0.051]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.027 0.034 0.037 0.042 0.052\n",
"\t\n",
"\n",
"outlier_('C', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.049 0.215 0.008 [ 0. 0.]\n",
"\t0.034 0.182 0.007 [ 0. 0.]\n",
"\t0.024 0.153 0.005 [ 0. 0.]\n",
"\t0.019 0.136 0.004 [ 0. 0.]\n",
"\t0.049 0.215 0.008 [ 0. 0.]\n",
"\t0.027 0.163 0.007 [ 0. 0.]\n",
"\t0.058 0.234 0.009 [ 0. 1.]\n",
"\t0.038 0.192 0.008 [ 0. 0.]\n",
"\t0.04 0.196 0.007 [ 0. 0.]\n",
"\t0.037 0.19 0.007 [ 0. 0.]\n",
"\t0.04 0.196 0.007 [ 0. 0.]\n",
"\t0.028 0.164 0.006 [ 0. 0.]\n",
"\t0.046 0.21 0.008 [ 0. 0.]\n",
"\t0.077 0.267 0.012 [ 0. 1.]\n",
"\t0.046 0.21 0.008 [ 0. 0.]\n",
"\t0.061 0.239 0.011 [ 0. 1.]\n",
"\t0.15 0.357 0.016 [ 0. 1.]\n",
"\t0.021 0.142 0.006 [ 0. 0.]\n",
"\t0.03 0.169 0.006 [ 0. 0.]\n",
"\t0.028 0.165 0.007 [ 0. 0.]\n",
"\t0.017 0.127 0.004 [ 0. 0.]\n",
"\t0.029 0.168 0.006 [ 0. 0.]\n",
"\t0.022 0.147 0.005 [ 0. 0.]\n",
"\t0.045 0.207 0.008 [ 0. 0.]\n",
"\t0.049 0.216 0.009 [ 0. 0.]\n",
"\t0.044 0.204 0.008 [ 0. 0.]\n",
"\t0.044 0.205 0.01 [ 0. 0.]\n",
"\t0.039 0.194 0.008 [ 0. 0.]\n",
"\t0.04 0.196 0.008 [ 0. 0.]\n",
"\t0.02 0.14 0.004 [ 0. 0.]\n",
"\t0.008 0.09 0.002 [ 0. 0.]\n",
"\t0.026 0.16 0.006 [ 0. 0.]\n",
"\t0.036 0.187 0.006 [ 0. 0.]\n",
"\t0.024 0.153 0.005 [ 0. 0.]\n",
"\t0.185 0.388 0.018 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_('B', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.0 0.017 0.0 [ 0. 0.]\n",
"\t0.006 0.079 0.004 [ 0. 0.]\n",
"\t0.011 0.104 0.005 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.003 0.053 0.001 [ 0. 0.]\n",
"\t0.005 0.073 0.004 [ 0. 0.]\n",
"\t0.007 0.081 0.004 [ 0. 0.]\n",
"\t0.005 0.067 0.004 [ 0. 0.]\n",
"\t0.001 0.036 0.001 [ 0. 0.]\n",
"\t0.014 0.117 0.005 [ 0. 0.]\n",
"\t0.003 0.053 0.001 [ 0. 0.]\n",
"\t0.019 0.135 0.005 [ 0. 0.]\n",
"\t0.071 0.257 0.016 [ 0. 1.]\n",
"\t0.014 0.117 0.005 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.008 0.091 0.004 [ 0. 0.]\n",
"\t0.006 0.077 0.005 [ 0. 0.]\n",
"\t0.009 0.093 0.004 [ 0. 0.]\n",
"\t0.005 0.067 0.003 [ 0. 0.]\n",
"\t0.007 0.082 0.005 [ 0. 0.]\n",
"\t0.003 0.057 0.002 [ 0. 0.]\n",
"\t0.003 0.058 0.002 [ 0. 0.]\n",
"\t0.002 0.047 0.002 [ 0. 0.]\n",
"\t0.014 0.119 0.006 [ 0. 0.]\n",
"\t0.002 0.04 0.002 [ 0. 0.]\n",
"\t0.003 0.051 0.002 [ 0. 0.]\n",
"\t0.008 0.09 0.004 [ 0. 0.]\n",
"\t0.013 0.113 0.006 [ 0. 0.]\n",
"\t0.001 0.032 0.001 [ 0. 0.]\n",
"\t0.004 0.06 0.002 [ 0. 0.]\n",
"\t0.0 0.017 0.0 [ 0. 0.]\n",
"\t0.005 0.071 0.003 [ 0. 0.]\n",
"\t0.006 0.076 0.003 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_sim_('D', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.063 0.242 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"msd_val_sim_('F', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.492 0.518 0.005 [ 0.055 1.147]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.064 0.41 0.494 0.576 1.062\n",
"\t\n",
"\n",
"outlier_sim_('D', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.061 0.24 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_sim_('B', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.065 0.246 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_('B', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.086 0.28 0.013 [ 0. 1.]\n",
"\t0.07 0.256 0.012 [ 0. 1.]\n",
"\t0.029 0.169 0.006 [ 0. 0.]\n",
"\t0.073 0.26 0.012 [ 0. 1.]\n",
"\t0.04 0.196 0.007 [ 0. 0.]\n",
"\t0.024 0.152 0.005 [ 0. 0.]\n",
"\t0.026 0.159 0.006 [ 0. 0.]\n",
"\t0.097 0.297 0.012 [ 0. 1.]\n",
"\t0.03 0.171 0.008 [ 0. 0.]\n",
"\t0.024 0.154 0.005 [ 0. 0.]\n",
"\t0.032 0.175 0.009 [ 0. 0.]\n",
"\t0.044 0.205 0.01 [ 0. 0.]\n",
"\t0.057 0.232 0.008 [ 0. 1.]\n",
"\t0.025 0.155 0.006 [ 0. 0.]\n",
"\t0.029 0.169 0.007 [ 0. 0.]\n",
"\t0.024 0.152 0.006 [ 0. 0.]\n",
"\t0.027 0.163 0.005 [ 0. 0.]\n",
"\t0.03 0.17 0.006 [ 0. 0.]\n",
"\t0.033 0.18 0.008 [ 0. 0.]\n",
"\t0.096 0.295 0.014 [ 0. 1.]\n",
"\t0.022 0.146 0.006 [ 0. 0.]\n",
"\t0.025 0.157 0.007 [ 0. 0.]\n",
"\t0.067 0.249 0.012 [ 0. 1.]\n",
"\t0.038 0.192 0.007 [ 0. 0.]\n",
"\t0.242 0.428 0.024 [ 0. 1.]\n",
"\t0.121 0.327 0.015 [ 0. 1.]\n",
"\t0.035 0.183 0.007 [ 0. 0.]\n",
"\t0.032 0.176 0.007 [ 0. 0.]\n",
"\t0.018 0.131 0.004 [ 0. 0.]\n",
"\t0.021 0.145 0.006 [ 0. 0.]\n",
"\t0.037 0.189 0.007 [ 0. 0.]\n",
"\t0.034 0.182 0.009 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_('D', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.005 0.072 0.003 [ 0. 0.]\n",
"\t0.002 0.049 0.002 [ 0. 0.]\n",
"\t0.002 0.039 0.001 [ 0. 0.]\n",
"\t0.002 0.039 0.001 [ 0. 0.]\n",
"\t0.0 0.021 0.0 [ 0. 0.]\n",
"\t0.009 0.093 0.004 [ 0. 0.]\n",
"\t0.004 0.059 0.002 [ 0. 0.]\n",
"\t0.001 0.027 0.001 [ 0. 0.]\n",
"\t0.002 0.042 0.001 [ 0. 0.]\n",
"\t0.006 0.078 0.003 [ 0. 0.]\n",
"\t0.006 0.079 0.004 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.003 0.057 0.002 [ 0. 0.]\n",
"\t0.002 0.045 0.001 [ 0. 0.]\n",
"\t0.002 0.044 0.001 [ 0. 0.]\n",
"\t0.02 0.139 0.007 [ 0. 0.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.005 0.073 0.003 [ 0. 0.]\n",
"\t0.004 0.065 0.003 [ 0. 0.]\n",
"\t0.002 0.043 0.002 [ 0. 0.]\n",
"\t0.592 0.491 0.042 [ 0. 1.]\n",
"\t0.081 0.273 0.017 [ 0. 1.]\n",
"\t0.0 0.017 0.0 [ 0. 0.]\n",
"\t0.008 0.09 0.004 [ 0. 0.]\n",
"\t0.009 0.092 0.005 [ 0. 0.]\n",
"\t0.007 0.083 0.003 [ 0. 0.]\n",
"\t0.003 0.052 0.002 [ 0. 0.]\n",
"\t0.007 0.083 0.005 [ 0. 0.]\n",
"\t0.117 0.322 0.022 [ 0. 1.]\n",
"\t0.006 0.079 0.003 [ 0. 0.]\n",
"\t0.003 0.052 0.002 [ 0. 0.]\n",
"\t0.005 0.072 0.003 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_('B', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.0 0.008 0.0 [ 0. 0.]\n",
"\t0.003 0.051 0.002 [ 0. 0.]\n",
"\t0.006 0.077 0.004 [ 0. 0.]\n",
"\t0.003 0.05 0.001 [ 0. 0.]\n",
"\t0.008 0.089 0.005 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.001 0.027 0.001 [ 0. 0.]\n",
"\t0.005 0.068 0.003 [ 0. 0.]\n",
"\t0.0 0.008 0.0 [ 0. 0.]\n",
"\t0.008 0.091 0.004 [ 0. 0.]\n",
"\t0.004 0.061 0.002 [ 0. 0.]\n",
"\t0.012 0.108 0.005 [ 0. 0.]\n",
"\t0.474 0.499 0.042 [ 0. 1.]\n",
"\t0.009 0.092 0.004 [ 0. 0.]\n",
"\t0.007 0.086 0.004 [ 0. 0.]\n",
"\t0.012 0.109 0.006 [ 0. 0.]\n",
"\t0.001 0.022 0.0 [ 0. 0.]\n",
"\t0.001 0.022 0.0 [ 0. 0.]\n",
"\t0.004 0.061 0.002 [ 0. 0.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.01 0.101 0.004 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.004 0.063 0.004 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.001 0.025 0.001 [ 0. 0.]\n",
"\t0.001 0.033 0.001 [ 0. 0.]\n",
"\t0.011 0.103 0.007 [ 0. 0.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.0 0.008 0.0 [ 0. 0.]\n",
"\t0.004 0.062 0.002 [ 0. 0.]\n",
"\t0.002 0.047 0.002 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_dist_sim_('C', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.009 1.996 0.017 [-4.014 3.758]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.846 -1.339 0.003 1.334 3.95\n",
"\t\n",
"\n",
"std_('A', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.776 0.102 0.001 [ 0.59 0.978]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.605 0.703 0.766 0.837 1.005\n",
"\t\n",
"\n",
"std_('F', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.062 0.009 0.0 [ 0.046 0.08 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.048 0.056 0.061 0.067 0.082\n",
"\t\n",
"\n",
"msd_val_sim_('B', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.204 0.481 0.004 [-0.589 0.314]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.768 -0.256 -0.198 -0.139 0.179\n",
"\t\n",
"\n",
"std_('C', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.394 0.077 0.005 [ 0.261 0.55 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.266 0.337 0.387 0.442 0.562\n",
"\t\n",
"\n",
"true_val_('B', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.197 0.015 0.0 [-0.229 -0.169]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.227 -0.208 -0.198 -0.188 -0.166\n",
"\t\n",
"\n",
"outlier_('E', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.015 0.12 0.007 [ 0. 0.]\n",
"\t0.005 0.073 0.004 [ 0. 0.]\n",
"\t0.006 0.08 0.003 [ 0. 0.]\n",
"\t0.003 0.057 0.002 [ 0. 0.]\n",
"\t0.013 0.114 0.006 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.031 0.173 0.008 [ 0. 0.]\n",
"\t0.006 0.078 0.003 [ 0. 0.]\n",
"\t0.005 0.073 0.002 [ 0. 0.]\n",
"\t0.007 0.086 0.003 [ 0. 0.]\n",
"\t0.061 0.24 0.013 [ 0. 1.]\n",
"\t0.002 0.045 0.001 [ 0. 0.]\n",
"\t0.02 0.139 0.006 [ 0. 0.]\n",
"\t0.003 0.056 0.003 [ 0. 0.]\n",
"\t0.007 0.085 0.003 [ 0. 0.]\n",
"\t0.006 0.075 0.003 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.01 0.097 0.006 [ 0. 0.]\n",
"\t0.014 0.117 0.006 [ 0. 0.]\n",
"\t0.0 0.021 0.0 [ 0. 0.]\n",
"\t0.01 0.1 0.003 [ 0. 0.]\n",
"\t0.005 0.073 0.003 [ 0. 0.]\n",
"\t0.006 0.078 0.003 [ 0. 0.]\n",
"\t0.003 0.052 0.002 [ 0. 0.]\n",
"\t0.009 0.095 0.004 [ 0. 0.]\n",
"\t0.003 0.054 0.003 [ 0. 0.]\n",
"\t0.003 0.057 0.002 [ 0. 0.]\n",
"\t0.011 0.105 0.004 [ 0. 0.]\n",
"\t0.004 0.061 0.002 [ 0. 0.]\n",
"\t0.006 0.079 0.003 [ 0. 0.]\n",
"\t0.009 0.094 0.005 [ 0. 0.]\n",
"\t0.014 0.119 0.007 [ 0. 0.]\n",
"\t0.012 0.11 0.006 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_dist_('A', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.042 2.047 0.094 [-4.04 4.025]\n",
"\t-0.185 1.761 0.116 [-3.461 3.51 ]\n",
"\t0.211 2.005 0.118 [-3.679 4.168]\n",
"\t0.139 1.782 0.106 [-3.372 3.505]\n",
"\t0.015 1.957 0.075 [-3.858 3.701]\n",
"\t-0.213 1.84 0.123 [-4.029 3.058]\n",
"\t0.086 1.921 0.063 [-3.776 3.789]\n",
"\t-0.015 1.928 0.047 [-3.681 3.809]\n",
"\t0.09 2.074 0.115 [-3.95 4.058]\n",
"\t-0.268 2.077 0.144 [-4.607 3.578]\n",
"\t0.319 1.526 0.147 [-3.101 2.784]\n",
"\t0.013 1.941 0.131 [-3.461 4.027]\n",
"\t0.076 2.013 0.057 [-3.825 4.035]\n",
"\t-0.016 1.934 0.061 [-3.78 3.864]\n",
"\t-0.278 0.182 0.018 [-0.565 0.05 ]\n",
"\t0.008 1.954 0.04 [-3.738 3.889]\n",
"\t-0.112 1.928 0.051 [-3.835 3.762]\n",
"\t-0.136 1.98 0.092 [-3.916 3.928]\n",
"\t-0.255 0.866 0.086 [-1.724 1.32 ]\n",
"\t-0.802 0.999 0.099 [-2.61 0.766]\n",
"\t0.02 1.96 0.045 [-3.807 3.891]\n",
"\t1.159 1.693 0.143 [-2.963 3.476]\n",
"\t0.13 2.064 0.176 [-3.663 4.35 ]\n",
"\t0.248 2.022 0.18 [-3.569 3.997]\n",
"\t0.075 1.974 0.124 [-3.911 3.97 ]\n",
"\t0.008 1.971 0.049 [-3.79 3.939]\n",
"\t0.096 1.948 0.065 [-3.642 4.072]\n",
"\t-0.121 1.96 0.141 [-3.843 3.64 ]\n",
"\t0.001 1.999 0.049 [-3.998 3.858]\n",
"\t0.05 2.022 0.154 [-3.869 4.22 ]\n",
"\t0.156 2.001 0.091 [-3.794 4.03 ]\n",
"\t0.12 2.117 0.187 [-4.159 4.326]\n",
"\t0.085 1.973 0.124 [-3.856 3.92 ]\n",
"\t0.128 1.994 0.141 [-3.801 3.926]\n",
"\t0.158 1.953 0.174 [-3.432 3.933]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.069 -1.369 0.006 1.262 4.008\n",
"\t-3.63 -1.39 -0.205 0.947 3.347\n",
"\t-3.861 -1.133 0.229 1.592 4.021\n",
"\t-3.337 -1.088 0.227 1.322 3.563\n",
"\t-3.751 -1.306 0.016 1.313 3.82\n",
"\t-3.937 -1.464 -0.14 1.076 3.175\n",
"\t-3.702 -1.199 0.082 1.37 3.906\n",
"\t-3.636 -1.313 -0.129 1.305 3.88\n",
"\t-3.951 -1.372 0.102 1.519 4.058\n",
"\t-4.549 -1.507 -0.31 1.131 3.656\n",
"\t-3.05 -0.715 0.447 1.448 2.866\n",
"\t-3.583 -1.304 -0.13 1.298 3.938\n",
"\t-3.947 -1.236 0.104 1.443 3.962\n",
"\t-3.8 -1.332 -0.026 1.299 3.858\n",
"\t-0.57 -0.421 -0.323 -0.107 0.047\n",
"\t-3.789 -1.278 0.025 1.28 3.87\n",
"\t-3.815 -1.387 -0.238 1.164 3.797\n",
"\t-4.007 -1.454 -0.153 1.167 3.88\n",
"\t-1.806 -0.894 -0.269 0.31 1.296\n",
"\t-2.854 -1.567 -0.606 0.011 0.618\n",
"\t-3.702 -1.294 -0.077 1.32 4.025\n",
"\t-3.486 0.803 1.645 2.181 3.195\n",
"\t-3.653 -1.355 0.113 1.497 4.369\n",
"\t-3.486 -1.273 0.229 1.698 4.123\n",
"\t-3.788 -1.242 0.014 1.354 4.156\n",
"\t-3.789 -1.306 -0.012 1.277 3.94\n",
"\t-3.812 -1.21 0.141 1.381 3.937\n",
"\t-3.744 -1.501 -0.154 1.151 3.774\n",
"\t-3.878 -1.331 0.0 1.323 4.016\n",
"\t-3.919 -1.248 0.045 1.33 4.189\n",
"\t-3.867 -1.208 0.185 1.522 3.992\n",
"\t-4.115 -1.226 0.069 1.478 4.392\n",
"\t-3.753 -1.24 0.07 1.387 4.066\n",
"\t-3.864 -1.223 0.15 1.549 3.892\n",
"\t-3.385 -1.172 0.015 1.441 4.03\n",
"\t\n",
"\n",
"outlier_dist_sim_('B', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.026 2.011 0.017 [-3.795 4.066]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.881 -1.33 -0.001 1.38 3.994\n",
"\t\n",
"\n",
"outlier_dist_sim_('A', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.008 1.992 0.016 [-3.811 3.896]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.867 -1.349 0.017 1.378 3.863\n",
"\t\n",
"\n",
"std_('F', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.115 0.018 0.001 [ 0.082 0.152]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.087 0.102 0.113 0.125 0.16\n",
"\t\n",
"\n",
"msd_val_sim_('E', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.066 0.603 0.005 [-3.022 -1.163]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.974 -2.308 -2.073 -1.835 -1.111\n",
"\t\n",
"\n",
"outlier_sim_('F', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.061 0.24 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_sim_('A', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.065 0.247 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"msd_val_sim_('A', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.928 0.828 0.008 [-4.464 -1.425]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.45 -3.386 -2.931 -2.467 -1.401\n",
"\t\n",
"\n",
"msd_val_sim_('E', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.401 0.52 0.004 [-0.16 0.931]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.14 0.286 0.402 0.518 0.968\n",
"\t\n",
"\n",
"outlier_sim_('F', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.065 0.247 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"std_('C', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.829 0.114 0.002 [ 0.616 1.05 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.636 0.749 0.818 0.899 1.082\n",
"\t\n",
"\n",
"outlier_('A', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.028 0.166 0.006 [ 0. 0.]\n",
"\t0.024 0.151 0.006 [ 0. 0.]\n",
"\t0.035 0.185 0.007 [ 0. 0.]\n",
"\t0.036 0.186 0.007 [ 0. 0.]\n",
"\t0.106 0.307 0.013 [ 0. 1.]\n",
"\t0.018 0.131 0.004 [ 0. 0.]\n",
"\t0.021 0.142 0.005 [ 0. 0.]\n",
"\t0.068 0.252 0.01 [ 0. 1.]\n",
"\t0.087 0.282 0.013 [ 0. 1.]\n",
"\t0.051 0.22 0.009 [ 0. 1.]\n",
"\t0.07 0.256 0.011 [ 0. 1.]\n",
"\t0.036 0.188 0.006 [ 0. 0.]\n",
"\t0.079 0.27 0.012 [ 0. 1.]\n",
"\t0.025 0.157 0.006 [ 0. 0.]\n",
"\t0.022 0.147 0.006 [ 0. 0.]\n",
"\t0.019 0.138 0.005 [ 0. 0.]\n",
"\t0.035 0.183 0.007 [ 0. 0.]\n",
"\t0.044 0.206 0.009 [ 0. 0.]\n",
"\t0.055 0.228 0.011 [ 0. 1.]\n",
"\t0.022 0.147 0.005 [ 0. 0.]\n",
"\t0.019 0.138 0.005 [ 0. 0.]\n",
"\t0.035 0.183 0.007 [ 0. 0.]\n",
"\t0.047 0.211 0.009 [ 0. 0.]\n",
"\t0.048 0.214 0.009 [ 0. 0.]\n",
"\t0.037 0.188 0.01 [ 0. 0.]\n",
"\t0.018 0.132 0.005 [ 0. 0.]\n",
"\t0.027 0.161 0.006 [ 0. 0.]\n",
"\t0.018 0.132 0.004 [ 0. 0.]\n",
"\t0.015 0.12 0.004 [ 0. 0.]\n",
"\t0.129 0.335 0.015 [ 0. 1.]\n",
"\t0.013 0.114 0.004 [ 0. 0.]\n",
"\t0.029 0.167 0.007 [ 0. 0.]\n",
"\t0.029 0.167 0.006 [ 0. 0.]\n",
"\t0.041 0.197 0.007 [ 0. 0.]\n",
"\t0.026 0.159 0.006 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"true_val_('C', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.373 0.076 0.002 [-2.518 -2.219]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.517 -2.424 -2.375 -2.324 -2.218\n",
"\t\n",
"\n",
"outlier_dist_sim_('D', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.014 1.982 0.017 [-3.811 3.931]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.883 -1.356 -0.012 1.332 3.864\n",
"\t\n",
"\n",
"outlier_('C', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.024 0.153 0.006 [ 0. 0.]\n",
"\t0.02 0.139 0.005 [ 0. 0.]\n",
"\t0.011 0.105 0.004 [ 0. 0.]\n",
"\t0.026 0.158 0.007 [ 0. 0.]\n",
"\t0.035 0.184 0.008 [ 0. 0.]\n",
"\t0.011 0.105 0.004 [ 0. 0.]\n",
"\t0.677 0.468 0.032 [ 0. 1.]\n",
"\t0.014 0.116 0.005 [ 0. 0.]\n",
"\t0.091 0.288 0.015 [ 0. 1.]\n",
"\t0.016 0.124 0.005 [ 0. 0.]\n",
"\t0.027 0.163 0.008 [ 0. 0.]\n",
"\t0.052 0.222 0.012 [ 0. 1.]\n",
"\t0.025 0.157 0.006 [ 0. 0.]\n",
"\t0.012 0.11 0.004 [ 0. 0.]\n",
"\t0.024 0.153 0.007 [ 0. 0.]\n",
"\t0.661 0.473 0.039 [ 0. 1.]\n",
"\t0.12 0.325 0.019 [ 0. 1.]\n",
"\t0.281 0.45 0.029 [ 0. 1.]\n",
"\t0.725 0.446 0.029 [ 0. 1.]\n",
"\t0.02 0.14 0.006 [ 0. 0.]\n",
"\t0.019 0.136 0.006 [ 0. 0.]\n",
"\t0.012 0.109 0.004 [ 0. 0.]\n",
"\t0.027 0.162 0.007 [ 0. 0.]\n",
"\t0.127 0.333 0.019 [ 0. 1.]\n",
"\t0.021 0.143 0.006 [ 0. 0.]\n",
"\t0.014 0.118 0.005 [ 0. 0.]\n",
"\t0.023 0.15 0.005 [ 0. 0.]\n",
"\t0.029 0.167 0.006 [ 0. 0.]\n",
"\t0.012 0.107 0.004 [ 0. 0.]\n",
"\t0.01 0.098 0.004 [ 0. 0.]\n",
"\t0.005 0.074 0.003 [ 0. 0.]\n",
"\t0.015 0.123 0.005 [ 0. 0.]\n",
"\t0.013 0.114 0.005 [ 0. 0.]\n",
"\t0.028 0.166 0.007 [ 0. 0.]\n",
"\t0.419 0.493 0.034 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 1.0 1.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 1.0 1.0\n",
"\t\n",
"\n",
"outlier_dist_('F', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.448 0.2 0.02 [ 0.164 0.906]\n",
"\t1.608 2.19 0.217 [-1.775 5.817]\n",
"\t1.222 1.766 0.174 [-1.951 4.126]\n",
"\t0.164 1.036 0.101 [-1.859 2.086]\n",
"\t0.406 0.063 0.001 [ 0.275 0.521]\n",
"\t-0.155 2.338 0.23 [-3.819 4.49 ]\n",
"\t-0.136 1.72 0.154 [-3.294 3.079]\n",
"\t-0.279 1.928 0.158 [-3.782 3.747]\n",
"\t-1.213 0.065 0.001 [-1.338 -1.081]\n",
"\t0.432 1.641 0.161 [-2.906 3.326]\n",
"\t-0.74 0.613 0.061 [-1.796 0.518]\n",
"\t-0.552 1.823 0.175 [-3.98 2.649]\n",
"\t1.572 1.927 0.19 [-2.189 5.408]\n",
"\t0.309 0.412 0.041 [-0.63 0.945]\n",
"\t-0.632 2.314 0.228 [-4.315 3.517]\n",
"\t0.811 2.014 0.185 [-3.217 4.476]\n",
"\t0.831 0.413 0.041 [ 0.1 1.656]\n",
"\t-0.218 2.295 0.226 [-4.348 4.558]\n",
"\t0.369 1.899 0.178 [-3.284 3.619]\n",
"\t0.24 2.347 0.233 [-4.018 4.809]\n",
"\t-1.359 1.76 0.171 [-4.458 2.353]\n",
"\t1.297 1.004 0.1 [ 0.069 3.801]\n",
"\t0.415 1.788 0.166 [-3.418 3.701]\n",
"\t0.695 2.482 0.246 [-3.265 5.413]\n",
"\t2.049 1.088 0.109 [ 0.365 3.562]\n",
"\t-2.23 0.064 0.001 [-2.354 -2.103]\n",
"\t-0.891 2.09 0.206 [-5.195 2.892]\n",
"\t-0.029 1.629 0.154 [-2.913 3.025]\n",
"\t-0.262 1.761 0.171 [-3.563 2.648]\n",
"\t0.124 1.549 0.144 [-3.243 3.142]\n",
"\t0.441 1.905 0.187 [-3.885 3.477]\n",
"\t-1.826 1.483 0.148 [-4.157 0.409]\n",
"\t-0.326 1.367 0.135 [-3.481 1.902]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.167 0.302 0.394 0.544 0.911\n",
"\t-1.945 -0.322 1.493 3.554 5.679\n",
"\t-1.914 -0.311 1.495 2.538 4.178\n",
"\t-1.989 -0.557 0.206 0.917 2.01\n",
"\t0.283 0.364 0.406 0.446 0.53\n",
"\t-3.91 -2.036 -0.432 1.461 4.438\n",
"\t-3.304 -1.351 -0.181 1.154 3.078\n",
"\t-4.063 -1.576 -0.387 0.996 3.589\n",
"\t-1.341 -1.255 -1.213 -1.171 -1.084\n",
"\t-2.919 -0.302 0.592 1.421 3.318\n",
"\t-1.757 -1.181 -0.762 -0.399 0.608\n",
"\t-3.89 -1.897 -0.49 0.691 2.85\n",
"\t-2.245 0.31 1.402 2.755 5.372\n",
"\t-0.628 0.089 0.38 0.578 0.95\n",
"\t-3.732 -2.502 -1.24 1.098 4.98\n",
"\t-3.018 -0.509 0.88 2.157 4.76\n",
"\t0.11 0.512 0.833 1.117 1.67\n",
"\t-5.071 -1.825 -0.324 1.431 4.097\n",
"\t-2.994 -1.164 0.336 1.812 4.062\n",
"\t-4.177 -1.602 0.411 1.812 4.687\n",
"\t-5.123 -2.581 -1.41 -0.03 1.902\n",
"\t-0.523 0.566 0.986 2.011 3.56\n",
"\t-3.209 -0.758 0.413 1.638 3.954\n",
"\t-3.543 -1.287 0.498 2.492 5.25\n",
"\t0.056 0.833 2.471 2.966 3.404\n",
"\t-2.358 -2.272 -2.229 -2.188 -2.107\n",
"\t-5.109 -2.367 -0.854 0.622 3.006\n",
"\t-2.919 -1.292 -0.071 1.158 3.025\n",
"\t-3.411 -1.743 -0.161 1.204 2.831\n",
"\t-3.566 -0.663 0.21 1.126 2.996\n",
"\t-3.768 -0.911 0.714 1.836 3.635\n",
"\t-4.103 -3.222 -1.589 -0.549 0.468\n",
"\t-3.301 -1.112 -0.353 0.649 2.17\n",
"\t\n",
"\n",
"true_val_('A', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.802 0.139 0.002 [-3.065 -2.521]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.078 -2.893 -2.803 -2.71 -2.53\n",
"\t\n",
"\n",
"msd_val_sim_('A', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.804 0.924 0.008 [-4.523 -1.021]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.53 -3.356 -2.806 -2.266 -1.024\n",
"\t\n",
"\n",
"outlier_sim_('E', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.062 0.241 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_sim_('E', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.064 0.245 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"true_val_('E', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.054 0.022 0.001 [ 0.009 0.097]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.008 0.04 0.055 0.069 0.096\n",
"\t\n",
"\n",
"true_val_('E', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.401 0.029 0.0 [ 0.344 0.457]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.345 0.382 0.401 0.42 0.458\n",
"\t\n",
"\n",
"outlier_dist_('E', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.099 1.976 0.152 [-4.114 3.536]\n",
"\t0.398 2.013 0.158 [-3.374 4.309]\n",
"\t-0.092 2.008 0.193 [-5.124 3.152]\n",
"\t0.096 2.042 0.09 [-3.792 4.267]\n",
"\t0.005 1.995 0.092 [-3.895 3.803]\n",
"\t-0.032 1.92 0.08 [-3.887 3.737]\n",
"\t-0.053 2.011 0.106 [-3.989 3.861]\n",
"\t0.519 1.74 0.159 [-2.95 3.605]\n",
"\t-0.042 2.029 0.094 [-4.132 3.778]\n",
"\t-0.107 2.041 0.087 [-4.119 3.938]\n",
"\t-0.224 1.924 0.095 [-3.698 3.731]\n",
"\t-0.127 2.107 0.143 [-4.23 4.143]\n",
"\t-0.069 2.024 0.101 [-4.054 4.047]\n",
"\t0.131 1.976 0.137 [-3.738 3.797]\n",
"\t-0.165 1.955 0.093 [-3.989 3.734]\n",
"\t0.0 1.965 0.106 [-3.736 3.776]\n",
"\t-0.09 1.956 0.072 [-3.93 3.773]\n",
"\t0.142 1.933 0.178 [-3.26 3.652]\n",
"\t-1.265 1.277 0.124 [-4.101 0.936]\n",
"\t0.483 1.915 0.141 [-3.206 4.514]\n",
"\t-0.043 2.176 0.157 [-4.724 3.951]\n",
"\t0.067 1.97 0.086 [-3.743 3.993]\n",
"\t0.015 1.967 0.12 [-3.754 3.936]\n",
"\t-0.349 1.724 0.132 [-4.119 3.207]\n",
"\t-0.343 1.241 0.121 [-3.389 2.09 ]\n",
"\t-0.007 2.036 0.051 [-4.01 3.886]\n",
"\t-0.154 2.198 0.146 [-4.254 4.153]\n",
"\t0.036 1.77 0.139 [-3.403 3.492]\n",
"\t0.052 1.152 0.113 [-2.223 2.068]\n",
"\t0.06 1.968 0.067 [-3.974 3.767]\n",
"\t0.04 1.915 0.098 [-3.554 3.77 ]\n",
"\t0.087 1.981 0.091 [-3.977 3.93 ]\n",
"\t0.202 2.014 0.098 [-3.688 4.212]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.967 -1.458 -0.04 1.251 3.761\n",
"\t-3.393 -1.001 0.435 1.753 4.297\n",
"\t-4.761 -1.134 0.065 1.265 3.62\n",
"\t-4.125 -1.241 0.133 1.512 3.992\n",
"\t-3.915 -1.391 0.036 1.404 3.797\n",
"\t-3.829 -1.299 0.107 1.15 3.832\n",
"\t-3.966 -1.398 -0.052 1.267 3.955\n",
"\t-2.919 -0.595 0.53 1.673 3.659\n",
"\t-3.944 -1.428 -0.078 1.31 4.083\n",
"\t-4.056 -1.481 -0.117 1.23 4.012\n",
"\t-3.819 -1.518 -0.305 1.06 3.653\n",
"\t-4.358 -1.539 -0.132 1.299 4.057\n",
"\t-4.129 -1.386 -0.084 1.266 4.014\n",
"\t-3.459 -1.279 0.059 1.431 4.233\n",
"\t-3.984 -1.455 -0.155 1.113 3.747\n",
"\t-3.718 -1.344 0.009 1.359 3.798\n",
"\t-3.795 -1.432 -0.162 1.187 3.926\n",
"\t-3.327 -1.356 0.138 1.672 3.613\n",
"\t-4.056 -2.123 -1.24 -0.344 1.011\n",
"\t-3.321 -0.794 0.37 1.719 4.442\n",
"\t-4.694 -1.345 0.019 1.434 3.998\n",
"\t-3.843 -1.197 0.043 1.35 3.91\n",
"\t-4.0 -1.269 0.037 1.308 3.783\n",
"\t-3.974 -1.224 -0.331 0.356 3.397\n",
"\t-3.218 -0.539 -0.408 -0.111 2.335\n",
"\t-3.997 -1.38 0.004 1.349 3.925\n",
"\t-4.254 -1.692 -0.152 1.363 4.158\n",
"\t-3.48 -1.143 0.027 1.255 3.442\n",
"\t-2.548 -0.597 0.173 0.917 1.965\n",
"\t-3.843 -1.252 0.051 1.393 3.941\n",
"\t-3.651 -1.263 0.065 1.364 3.704\n",
"\t-4.031 -1.215 0.145 1.43 3.904\n",
"\t-3.74 -1.136 0.202 1.54 4.198\n",
"\t\n",
"\n",
"outlier_dist_('A', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.036 2.016 0.076 [-4.161 3.789]\n",
"\t0.069 2.065 0.125 [-3.772 4.178]\n",
"\t0.029 1.954 0.058 [-3.776 3.987]\n",
"\t-0.235 1.156 0.115 [-1.81 1.731]\n",
"\t0.223 1.897 0.059 [-3.61 3.802]\n",
"\t-0.024 1.927 0.041 [-3.723 3.845]\n",
"\t-1.207 1.279 0.127 [-3.369 1.009]\n",
"\t-0.131 1.801 0.165 [-3.707 3.625]\n",
"\t-0.24 1.949 0.074 [-4.21 3.7 ]\n",
"\t-0.152 2.001 0.162 [-3.886 3.926]\n",
"\t-0.283 1.911 0.163 [-3.709 3.492]\n",
"\t0.413 1.937 0.124 [-3.473 4.081]\n",
"\t-0.156 1.932 0.031 [-3.9 3.67]\n",
"\t0.052 1.79 0.099 [-3.317 3.583]\n",
"\t-0.09 2.008 0.114 [-3.943 3.984]\n",
"\t-0.042 1.94 0.138 [-3.865 3.966]\n",
"\t0.519 1.814 0.162 [-3.07 3.762]\n",
"\t0.003 1.873 0.1 [-3.753 3.654]\n",
"\t-0.829 2.399 0.235 [-4.862 3.929]\n",
"\t0.003 1.97 0.076 [-3.678 4.019]\n",
"\t0.006 2.003 0.036 [-3.985 3.888]\n",
"\t-0.027 1.926 0.156 [-4.055 3.678]\n",
"\t0.054 1.951 0.076 [-3.546 4.071]\n",
"\t0.015 1.894 0.076 [-3.813 3.69 ]\n",
"\t0.142 2.233 0.199 [-4.159 4.51 ]\n",
"\t0.256 1.921 0.129 [-3.351 4.227]\n",
"\t0.516 1.952 0.181 [-2.809 3.99 ]\n",
"\t-1.282 1.817 0.176 [-4.368 2.352]\n",
"\t-0.345 1.944 0.189 [-3.512 2.9 ]\n",
"\t0.122 1.955 0.093 [-3.964 3.819]\n",
"\t-0.812 1.966 0.186 [-4.585 2.983]\n",
"\t0.274 2.051 0.156 [-3.592 4.428]\n",
"\t-0.042 1.963 0.041 [-3.913 3.751]\n",
"\t0.154 1.996 0.141 [-3.423 4.569]\n",
"\t-0.013 1.997 0.067 [-3.858 4.111]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.906 -1.285 0.064 1.356 4.056\n",
"\t-3.773 -1.38 0.042 1.437 4.177\n",
"\t-3.856 -1.288 0.045 1.323 3.931\n",
"\t-2.025 -1.089 -0.698 1.065 1.678\n",
"\t-3.608 -1.038 0.329 1.506 3.826\n",
"\t-3.774 -1.273 -0.07 1.245 3.816\n",
"\t-3.176 -2.194 -1.464 -0.122 1.516\n",
"\t-3.86 -1.196 -0.2 1.003 3.508\n",
"\t-4.063 -1.497 -0.325 0.997 3.869\n",
"\t-4.006 -1.453 -0.247 1.186 3.85\n",
"\t-3.701 -1.616 -0.351 0.983 3.504\n",
"\t-3.458 -0.915 0.382 1.76 4.104\n",
"\t-3.85 -1.445 -0.239 1.128 3.734\n",
"\t-3.469 -1.171 0.087 1.268 3.448\n",
"\t-4.165 -1.429 -0.083 1.271 3.813\n",
"\t-3.858 -1.238 -0.045 1.154 4.004\n",
"\t-2.919 -0.782 0.535 1.821 3.958\n",
"\t-3.641 -1.267 -0.077 1.234 3.799\n",
"\t-5.504 -2.539 -0.956 1.122 3.545\n",
"\t-3.9 -1.297 -0.004 1.343 3.896\n",
"\t-3.932 -1.309 -0.005 1.354 3.955\n",
"\t-3.862 -1.285 -0.046 1.139 3.925\n",
"\t-3.715 -1.251 0.04 1.354 3.931\n",
"\t-3.789 -1.218 0.043 1.25 3.728\n",
"\t-4.729 -1.353 0.324 1.624 4.089\n",
"\t-3.558 -1.004 0.265 1.495 4.03\n",
"\t-2.796 -1.073 0.48 2.006 4.018\n",
"\t-4.62 -2.714 -1.131 -0.075 2.21\n",
"\t-3.366 -2.012 -0.684 1.336 3.479\n",
"\t-3.964 -1.125 0.246 1.439 3.824\n",
"\t-4.974 -2.124 -0.574 0.513 2.739\n",
"\t-3.797 -1.103 0.258 1.655 4.277\n",
"\t-3.888 -1.349 -0.06 1.275 3.79\n",
"\t-3.625 -1.181 0.008 1.472 4.413\n",
"\t-4.03 -1.316 -0.02 1.325 3.983\n",
"\t\n",
"\n",
"outlier_dist_('D', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.01 1.959 0.089 [-4.08 3.648]\n",
"\t0.083 1.82 0.166 [-3.133 3.701]\n",
"\t0.052 2.037 0.063 [-4.016 3.947]\n",
"\t0.019 2.026 0.086 [-4.134 3.666]\n",
"\t-0.011 1.923 0.114 [-3.636 3.694]\n",
"\t-0.0 1.937 0.109 [-3.828 3.782]\n",
"\t-0.032 1.974 0.172 [-3.978 3.718]\n",
"\t-0.125 1.968 0.077 [-3.973 3.672]\n",
"\t0.063 1.962 0.074 [-3.599 3.989]\n",
"\t0.285 1.823 0.153 [-3.175 3.95 ]\n",
"\t-0.001 1.971 0.039 [-3.822 3.856]\n",
"\t0.075 2.054 0.062 [-4.018 3.896]\n",
"\t-0.181 2.091 0.095 [-4.29 4.005]\n",
"\t-0.087 1.968 0.102 [-3.785 3.772]\n",
"\t0.104 2.048 0.118 [-3.811 4.22 ]\n",
"\t0.242 1.944 0.172 [-3.436 4.162]\n",
"\t0.156 1.885 0.149 [-3.412 4.113]\n",
"\t0.044 2.045 0.134 [-4.025 3.933]\n",
"\t0.118 2.05 0.18 [-3.58 4.495]\n",
"\t-0.762 1.364 0.135 [-3.259 1.651]\n",
"\t0.272 1.466 0.141 [-3.832 3.057]\n",
"\t-0.074 1.903 0.06 [-3.794 3.761]\n",
"\t-0.039 2.002 0.091 [-4.078 3.791]\n",
"\t-0.398 1.217 0.117 [-3.01 1.571]\n",
"\t-0.056 1.823 0.16 [-3.489 3.305]\n",
"\t-0.007 2.025 0.085 [-3.798 4.314]\n",
"\t0.172 2.069 0.184 [-3.974 4.046]\n",
"\t-0.303 1.981 0.164 [-3.822 3.923]\n",
"\t-0.057 1.926 0.135 [-3.723 3.949]\n",
"\t0.191 2.08 0.139 [-3.823 4.467]\n",
"\t-0.239 1.994 0.163 [-4.414 3.517]\n",
"\t0.028 1.981 0.086 [-3.712 3.83 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.05 -1.278 0.07 1.384 3.699\n",
"\t-3.644 -1.166 -0.022 1.484 3.443\n",
"\t-3.936 -1.33 0.075 1.401 4.08\n",
"\t-3.98 -1.356 0.035 1.424 3.841\n",
"\t-3.625 -1.379 -0.067 1.301 3.738\n",
"\t-3.87 -1.304 0.029 1.303 3.75\n",
"\t-3.756 -1.362 -0.099 1.288 4.181\n",
"\t-4.081 -1.411 -0.114 1.254 3.623\n",
"\t-3.573 -1.316 0.004 1.38 4.069\n",
"\t-3.366 -0.956 0.295 1.531 3.803\n",
"\t-3.919 -1.302 -0.011 1.321 3.807\n",
"\t-3.831 -1.335 0.076 1.477 4.116\n",
"\t-4.302 -1.54 -0.164 1.22 4.005\n",
"\t-3.729 -1.462 -0.117 1.27 3.863\n",
"\t-4.136 -1.202 0.106 1.466 3.998\n",
"\t-3.575 -1.05 0.298 1.515 4.07\n",
"\t-3.376 -1.104 0.034 1.318 4.155\n",
"\t-4.025 -1.334 0.099 1.5 3.933\n",
"\t-3.632 -1.349 0.02 1.371 4.458\n",
"\t-3.446 -1.606 -0.86 0.351 1.547\n",
"\t-4.697 0.267 0.383 0.532 2.722\n",
"\t-3.801 -1.278 -0.2 1.155 3.757\n",
"\t-3.839 -1.402 -0.095 1.233 4.131\n",
"\t-3.104 -1.089 -0.208 0.47 1.504\n",
"\t-3.516 -1.397 -0.003 1.254 3.291\n",
"\t-3.984 -1.386 -0.004 1.3 4.173\n",
"\t-4.265 -1.111 0.194 1.607 3.9\n",
"\t-4.147 -1.663 -0.416 1.064 3.652\n",
"\t-4.162 -1.179 -0.184 1.185 3.718\n",
"\t-3.809 -1.232 0.132 1.517 4.504\n",
"\t-4.146 -1.504 -0.228 1.044 3.941\n",
"\t-3.823 -1.305 0.019 1.367 3.746\n",
"\t\n",
"\n",
"std_('A', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.644 0.098 0.004 [ 0.467 0.834]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.484 0.574 0.633 0.703 0.863\n",
"\t\n",
"\n",
"outlier_dist_sim_('E', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.013 2.005 0.017 [-3.923 3.889]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.992 -1.378 -0.011 1.355 3.845\n",
"\t\n",
"\n",
"outlier_sim_('C', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.061 0.24 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"std_('E', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.16 0.021 0.0 [ 0.12 0.201]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.124 0.145 0.157 0.172 0.207\n",
"\t"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
"\n",
"true_val_('F', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.015 0.011 0.0 [-0.007 0.038]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.007 0.008 0.015 0.023 0.038\n",
"\t\n",
"\n",
"outlier_dist_('E', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.103 2.098 0.126 [-4.339 3.989]\n",
"\t0.009 2.047 0.075 [-3.931 4.117]\n",
"\t0.025 1.984 0.07 [-3.691 4.004]\n",
"\t-0.029 1.97 0.089 [-3.672 4.134]\n",
"\t-0.006 1.929 0.057 [-3.641 3.829]\n",
"\t-0.075 1.895 0.104 [-3.88 3.362]\n",
"\t-0.15 2.009 0.131 [-4.195 3.601]\n",
"\t-0.102 1.989 0.08 [-3.862 3.989]\n",
"\t0.051 2.119 0.171 [-4.016 3.93 ]\n",
"\t0.044 1.973 0.07 [-3.856 3.828]\n",
"\t-0.322 1.92 0.15 [-4.179 3.262]\n",
"\t-0.097 1.954 0.093 [-3.752 3.902]\n",
"\t-0.276 2.07 0.129 [-4.387 3.539]\n",
"\t0.005 2.047 0.114 [-3.898 4.045]\n",
"\t-0.059 1.981 0.062 [-3.895 3.798]\n",
"\t0.109 1.885 0.117 [-4.011 3.631]\n",
"\t0.351 0.063 0.006 [ 0.255 0.487]\n",
"\t-0.04 1.933 0.055 [-4.016 3.618]\n",
"\t0.566 2.069 0.19 [-3.54 4.754]\n",
"\t-0.586 1.886 0.173 [-4.52 2.721]\n",
"\t0.075 2.056 0.118 [-3.747 4.389]\n",
"\t0.495 1.923 0.172 [-3.093 3.898]\n",
"\t0.264 1.837 0.164 [-3.256 3.684]\n",
"\t0.203 1.782 0.176 [-3.208 3.245]\n",
"\t-0.141 1.965 0.077 [-4.071 3.812]\n",
"\t-0.003 1.965 0.039 [-3.672 3.93 ]\n",
"\t0.193 2.07 0.162 [-3.604 4.17 ]\n",
"\t0.014 1.986 0.057 [-3.913 3.939]\n",
"\t0.141 1.969 0.135 [-3.502 4.288]\n",
"\t-0.464 2.058 0.197 [-4.525 3.422]\n",
"\t0.067 1.971 0.04 [-3.755 4.001]\n",
"\t0.007 1.933 0.07 [-3.819 3.653]\n",
"\t0.102 1.894 0.089 [-3.504 3.928]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-4.303 -1.483 -0.103 1.301 4.047\n",
"\t-4.031 -1.368 0.006 1.361 4.057\n",
"\t-3.852 -1.316 0.048 1.337 3.911\n",
"\t-3.875 -1.353 -0.051 1.249 3.962\n",
"\t-3.704 -1.331 -0.017 1.304 3.781\n",
"\t-3.826 -1.335 -0.077 1.268 3.449\n",
"\t-4.136 -1.486 -0.114 1.249 3.677\n",
"\t-3.941 -1.441 -0.123 1.194 3.915\n",
"\t-3.822 -1.39 -0.035 1.408 4.249\n",
"\t-3.764 -1.311 0.037 1.366 3.972\n",
"\t-4.304 -1.397 -0.239 0.928 3.262\n",
"\t-3.925 -1.369 -0.066 1.186 3.768\n",
"\t-4.146 -1.725 -0.326 1.1 3.857\n",
"\t-4.107 -1.341 0.029 1.428 3.923\n",
"\t-3.987 -1.373 -0.072 1.297 3.756\n",
"\t-3.685 -1.114 0.123 1.328 3.991\n",
"\t0.242 0.306 0.35 0.38 0.481\n",
"\t-3.868 -1.342 -0.037 1.242 3.804\n",
"\t-3.75 -0.763 0.532 1.841 4.645\n",
"\t-4.362 -1.857 -0.579 0.711 2.902\n",
"\t-4.057 -1.244 0.034 1.452 4.123\n",
"\t-2.98 -0.913 0.443 1.877 4.052\n",
"\t-3.358 -0.969 0.357 1.52 3.614\n",
"\t-3.013 -1.105 0.187 1.568 3.53\n",
"\t-4.027 -1.454 -0.161 1.125 3.873\n",
"\t-3.814 -1.301 -0.01 1.326 3.831\n",
"\t-3.555 -1.331 0.146 1.635 4.233\n",
"\t-3.95 -1.287 0.04 1.351 3.914\n",
"\t-3.909 -1.239 0.195 1.505 3.943\n",
"\t-4.472 -1.861 -0.299 0.949 3.502\n",
"\t-3.801 -1.251 0.039 1.386 3.984\n",
"\t-3.775 -1.325 0.057 1.322 3.73\n",
"\t-3.579 -1.178 0.077 1.351 3.869\n",
"\t\n",
"\n",
"outlier_dist_('B', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.135 1.947 0.124 [-3.714 3.875]\n",
"\t-0.31 2.021 0.169 [-4.481 3.49 ]\n",
"\t0.111 1.931 0.078 [-3.597 3.817]\n",
"\t0.209 1.833 0.168 [-3.447 3.4 ]\n",
"\t-0.501 1.969 0.184 [-4.495 3.598]\n",
"\t3.338 2.142 0.213 [-0.019 7.455]\n",
"\t0.057 2.032 0.135 [-3.918 3.999]\n",
"\t0.514 1.61 0.132 [-2.739 3.444]\n",
"\t1.65 0.878 0.083 [ 0.151 3.406]\n",
"\t-0.017 1.989 0.17 [-4.08 3.696]\n",
"\t0.076 1.988 0.12 [-3.765 4.028]\n",
"\t0.206 1.232 0.122 [-2.46 2.295]\n",
"\t0.02 1.506 0.083 [-3.521 3.22 ]\n",
"\t0.088 1.882 0.169 [-3.589 3.763]\n",
"\t-0.12 1.861 0.137 [-3.786 3.607]\n",
"\t0.415 1.772 0.135 [-2.906 4.051]\n",
"\t-0.117 1.928 0.094 [-3.875 3.86 ]\n",
"\t0.027 1.973 0.1 [-4.052 3.634]\n",
"\t0.285 2.079 0.113 [-4.032 4.275]\n",
"\t-0.007 1.871 0.112 [-3.338 3.852]\n",
"\t0.015 1.975 0.073 [-4.049 3.716]\n",
"\t1.186 1.109 0.109 [-0.959 3.42 ]\n",
"\t0.08 2.088 0.133 [-3.87 4.25]\n",
"\t0.039 1.956 0.149 [-3.526 4.155]\n",
"\t0.087 1.955 0.105 [-3.769 3.84 ]\n",
"\t-0.011 2.018 0.1 [-3.95 4.156]\n",
"\t0.452 1.847 0.151 [-3.104 3.945]\n",
"\t-0.207 1.972 0.066 [-3.926 3.704]\n",
"\t-0.404 1.909 0.132 [-4.087 3.294]\n",
"\t-0.0 1.944 0.101 [-3.813 3.796]\n",
"\t0.049 1.979 0.064 [-3.969 3.749]\n",
"\t-0.509 1.733 0.155 [-3.726 2.571]\n",
"\t0.058 2.393 0.229 [-4.919 3.858]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.75 -1.136 0.167 1.467 3.85\n",
"\t-4.492 -1.537 -0.257 1.026 3.484\n",
"\t-3.528 -1.203 0.055 1.398 3.995\n",
"\t-3.776 -0.945 0.389 1.574 3.236\n",
"\t-4.167 -1.829 -0.606 0.605 4.185\n",
"\t0.162 1.769 3.138 4.569 7.758\n",
"\t-3.846 -1.286 -0.017 1.405 4.087\n",
"\t-2.748 -0.544 0.579 1.627 3.441\n",
"\t0.213 0.973 1.57 2.236 3.522\n",
"\t-3.951 -1.353 0.038 1.235 3.887\n",
"\t-3.978 -1.253 0.072 1.446 3.898\n",
"\t-2.352 -0.323 0.433 0.935 2.621\n",
"\t-3.475 -0.388 0.26 0.371 3.321\n",
"\t-3.621 -1.234 0.204 1.264 3.748\n",
"\t-4.177 -1.297 -0.141 1.179 3.368\n",
"\t-2.876 -0.793 0.27 1.617 4.098\n",
"\t-3.966 -1.39 -0.103 1.132 3.798\n",
"\t-3.915 -1.29 0.048 1.344 3.809\n",
"\t-3.894 -1.076 0.24 1.709 4.493\n",
"\t-3.546 -1.295 -0.056 1.256 3.729\n",
"\t-3.979 -1.28 0.026 1.349 3.839\n",
"\t-0.951 0.481 1.107 1.735 3.442\n",
"\t-4.033 -1.328 0.082 1.524 4.132\n",
"\t-3.886 -1.209 0.049 1.372 3.88\n",
"\t-3.857 -1.209 0.078 1.429 3.806\n",
"\t-4.303 -1.282 0.08 1.283 3.839\n",
"\t-3.06 -0.885 0.313 1.8 4.013\n",
"\t-4.083 -1.539 -0.171 1.138 3.633\n",
"\t-4.092 -1.748 -0.4 0.945 3.294\n",
"\t-3.769 -1.355 -0.0 1.291 3.868\n",
"\t-3.9 -1.269 0.033 1.403 3.878\n",
"\t-3.863 -1.812 -0.513 0.869 2.492\n",
"\t-5.067 -1.515 0.358 1.801 3.776\n",
"\t\n",
"\n",
"std_('D', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.086 0.015 0.001 [ 0.059 0.116]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.063 0.076 0.084 0.094 0.122\n",
"\t\n",
"\n",
"msd_val_sim_('F', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.015 0.504 0.004 [-0.655 0.273]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.456 -0.03 0.016 0.061 0.523\n",
"\t\n",
"\n",
"outlier_sim_('C', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.063 0.243 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"std_('E', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.329 0.051 0.001 [ 0.235 0.43 ]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.243 0.294 0.324 0.358 0.444\n",
"\t\n",
"\n",
"outlier_('A', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.042 0.202 0.008 [ 0. 0.]\n",
"\t0.02 0.14 0.004 [ 0. 0.]\n",
"\t0.032 0.177 0.006 [ 0. 0.]\n",
"\t0.048 0.213 0.007 [ 0. 0.]\n",
"\t0.159 0.366 0.015 [ 0. 1.]\n",
"\t0.158 0.365 0.019 [ 0. 1.]\n",
"\t0.036 0.187 0.007 [ 0. 0.]\n",
"\t0.056 0.229 0.009 [ 0. 1.]\n",
"\t0.045 0.207 0.008 [ 0. 0.]\n",
"\t0.034 0.182 0.006 [ 0. 0.]\n",
"\t0.023 0.15 0.005 [ 0. 0.]\n",
"\t0.029 0.169 0.007 [ 0. 0.]\n",
"\t0.022 0.146 0.005 [ 0. 0.]\n",
"\t0.031 0.172 0.006 [ 0. 0.]\n",
"\t0.124 0.329 0.017 [ 0. 1.]\n",
"\t0.053 0.225 0.008 [ 0. 1.]\n",
"\t0.077 0.267 0.011 [ 0. 1.]\n",
"\t0.035 0.183 0.007 [ 0. 0.]\n",
"\t0.061 0.239 0.009 [ 0. 1.]\n",
"\t0.024 0.152 0.005 [ 0. 0.]\n",
"\t0.035 0.184 0.008 [ 0. 0.]\n",
"\t0.026 0.159 0.006 [ 0. 0.]\n",
"\t0.033 0.177 0.006 [ 0. 0.]\n",
"\t0.049 0.216 0.007 [ 0. 0.]\n",
"\t0.056 0.231 0.009 [ 0. 1.]\n",
"\t0.027 0.163 0.007 [ 0. 0.]\n",
"\t0.046 0.209 0.009 [ 0. 0.]\n",
"\t0.046 0.209 0.009 [ 0. 0.]\n",
"\t0.04 0.196 0.007 [ 0. 0.]\n",
"\t0.123 0.328 0.015 [ 0. 1.]\n",
"\t0.03 0.17 0.007 [ 0. 0.]\n",
"\t0.03 0.171 0.006 [ 0. 0.]\n",
"\t0.018 0.135 0.004 [ 0. 0.]\n",
"\t0.035 0.185 0.006 [ 0. 0.]\n",
"\t0.054 0.226 0.008 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_dist_('B', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.119 1.994 0.066 [-3.865 3.961]\n",
"\t0.21 1.521 0.138 [-2.746 2.993]\n",
"\t0.964 0.849 0.082 [-0.628 2.598]\n",
"\t0.064 1.968 0.113 [-3.804 3.921]\n",
"\t0.055 1.963 0.163 [-3.743 3.991]\n",
"\t-0.03 1.846 0.163 [-3.543 3.553]\n",
"\t-0.139 1.998 0.143 [-4.278 3.787]\n",
"\t-0.115 1.891 0.063 [-3.722 3.784]\n",
"\t-0.027 1.921 0.09 [-3.6 3.777]\n",
"\t-0.062 2.042 0.1 [-4.21 3.811]\n",
"\t0.037 2.003 0.066 [-3.99 3.793]\n",
"\t0.037 1.991 0.152 [-3.716 4.118]\n",
"\t0.123 1.947 0.056 [-3.628 4.012]\n",
"\t0.077 1.921 0.078 [-3.87 3.669]\n",
"\t0.189 1.981 0.136 [-3.461 4.081]\n",
"\t0.032 1.899 0.135 [-3.851 3.592]\n",
"\t0.05 1.971 0.087 [-3.857 3.857]\n",
"\t0.061 2.026 0.077 [-4.215 3.861]\n",
"\t1.4 0.979 0.097 [-0.054 3.251]\n",
"\t0.004 1.93 0.114 [-3.582 4.005]\n",
"\t-0.034 1.912 0.114 [-3.827 3.713]\n",
"\t0.938 2.067 0.194 [-3.105 5.102]\n",
"\t-0.008 2.028 0.189 [-4.332 3.372]\n",
"\t-0.238 1.948 0.137 [-4.227 3.662]\n",
"\t0.405 1.877 0.091 [-3.593 3.762]\n",
"\t-0.152 1.906 0.037 [-3.776 3.686]\n",
"\t-0.02 1.941 0.05 [-4.019 3.687]\n",
"\t0.152 2.004 0.072 [-3.691 4.172]\n",
"\t-0.235 1.723 0.143 [-3.596 3.105]\n",
"\t-0.08 1.964 0.033 [-3.805 3.858]\n",
"\t-0.337 2.086 0.185 [-4.418 3.653]\n",
"\t0.006 1.981 0.058 [-3.938 3.822]\n",
"\t-3.825 0.705 0.07 [-5.174 -2.632]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.858 -1.489 -0.24 1.193 3.997\n",
"\t-2.75 -0.875 0.191 1.344 2.992\n",
"\t-0.697 0.385 0.992 1.56 2.56\n",
"\t-3.907 -1.252 0.136 1.388 3.886\n",
"\t-3.984 -1.235 0.071 1.368 3.844\n",
"\t-3.499 -1.296 -0.096 1.251 3.613\n",
"\t-4.194 -1.395 -0.117 1.134 3.894\n",
"\t-3.842 -1.357 -0.171 1.147 3.684\n",
"\t-3.738 -1.321 -0.028 1.275 3.661\n",
"\t-4.136 -1.332 -0.039 1.241 3.922\n",
"\t-3.819 -1.305 0.06 1.363 3.986\n",
"\t-3.925 -1.248 0.013 1.329 3.967\n",
"\t-3.855 -1.161 0.197 1.423 3.847\n",
"\t-3.837 -1.176 0.143 1.364 3.728\n",
"\t-3.531 -1.217 0.14 1.549 4.055\n",
"\t-3.849 -1.206 0.079 1.333 3.603\n",
"\t-3.85 -1.276 0.072 1.377 3.874\n",
"\t-4.048 -1.238 0.059 1.377 4.046\n",
"\t-0.28 0.619 1.15 2.289 3.12\n",
"\t-3.77 -1.248 -0.055 1.28 3.861\n",
"\t-3.621 -1.294 -0.134 1.176 3.965\n",
"\t-3.021 -0.351 0.94 2.17 5.302\n",
"\t-4.911 -1.222 0.184 1.393 3.247\n",
"\t-4.555 -1.395 -0.08 0.99 3.432\n",
"\t-3.708 -0.819 0.663 1.713 3.676\n",
"\t-3.753 -1.464 -0.266 1.112 3.72\n",
"\t-3.879 -1.268 -0.047 1.234 3.869\n",
"\t-3.783 -1.203 0.154 1.492 4.117\n",
"\t-3.438 -1.477 -0.283 0.979 3.274\n",
"\t-3.89 -1.401 -0.089 1.232 3.798\n",
"\t-4.338 -1.789 -0.382 1.17 3.839\n",
"\t-3.819 -1.319 -0.018 1.313 4.006\n",
"\t-5.169 -4.371 -3.795 -3.329 -2.621\n",
"\t\n",
"\n",
"outlier_('E', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.006 0.078 0.003 [ 0. 0.]\n",
"\t0.003 0.053 0.002 [ 0. 0.]\n",
"\t0.001 0.029 0.001 [ 0. 0.]\n",
"\t0.0 0.008 0.0 [ 0. 0.]\n",
"\t0.009 0.096 0.004 [ 0. 0.]\n",
"\t0.08 0.271 0.018 [ 0. 1.]\n",
"\t0.005 0.073 0.003 [ 0. 0.]\n",
"\t0.008 0.087 0.003 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.005 0.074 0.003 [ 0. 0.]\n",
"\t0.005 0.073 0.003 [ 0. 0.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.007 0.086 0.004 [ 0. 0.]\n",
"\t0.007 0.084 0.004 [ 0. 0.]\n",
"\t0.005 0.067 0.002 [ 0. 0.]\n",
"\t0.015 0.122 0.007 [ 0. 0.]\n",
"\t0.006 0.077 0.003 [ 0. 0.]\n",
"\t0.01 0.099 0.005 [ 0. 0.]\n",
"\t0.012 0.107 0.006 [ 0. 0.]\n",
"\t0.002 0.048 0.002 [ 0. 0.]\n",
"\t0.009 0.094 0.008 [ 0. 0.]\n",
"\t0.005 0.068 0.003 [ 0. 0.]\n",
"\t0.003 0.053 0.002 [ 0. 0.]\n",
"\t0.304 0.46 0.038 [ 0. 1.]\n",
"\t0.542 0.498 0.046 [ 0. 1.]\n",
"\t0.001 0.025 0.001 [ 0. 0.]\n",
"\t0.003 0.051 0.002 [ 0. 0.]\n",
"\t0.014 0.116 0.008 [ 0. 0.]\n",
"\t0.01 0.101 0.005 [ 0. 0.]\n",
"\t0.017 0.129 0.007 [ 0. 0.]\n",
"\t0.003 0.058 0.002 [ 0. 0.]\n",
"\t0.003 0.056 0.002 [ 0. 0.]\n",
"\t0.004 0.065 0.002 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 1.0 1.0\n",
"\t0.0 0.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_dist_('F', 'LB_IPTG'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.768 1.769 0.159 [-2.866 3.803]\n",
"\t0.515 1.901 0.185 [-2.934 4.094]\n",
"\t1.473 0.452 0.045 [ 0.753 2.2 ]\n",
"\t0.609 1.923 0.167 [-2.862 4.297]\n",
"\t0.67 1.418 0.138 [-2.017 3.363]\n",
"\t0.152 1.936 0.135 [-3.572 3.926]\n",
"\t-0.075 2.013 0.137 [-3.644 3.981]\n",
"\t0.318 2.072 0.164 [-3.718 4.329]\n",
"\t-1.603 0.111 0.008 [-1.809 -1.38 ]\n",
"\t0.67 1.904 0.172 [-2.929 4.462]\n",
"\t0.314 1.897 0.126 [-3.46 3.783]\n",
"\t-0.485 0.529 0.027 [-1.342 0.832]\n",
"\t0.418 1.918 0.172 [-3.428 3.906]\n",
"\t-0.122 1.954 0.181 [-5.03 3.209]\n",
"\t-0.273 2.09 0.116 [-4.283 3.752]\n",
"\t-0.189 2.24 0.192 [-5.109 4.082]\n",
"\t1.525 0.388 0.038 [ 0.92 2.469]\n",
"\t-0.023 0.598 0.059 [-0.98 1.376]\n",
"\t-0.234 1.736 0.168 [-3.698 3. ]\n",
"\t-0.093 1.986 0.136 [-3.927 3.745]\n",
"\t2.175 1.495 0.149 [-0.391 4.687]\n",
"\t-0.062 2.137 0.12 [-4.201 4.131]\n",
"\t-0.564 0.36 0.036 [-1.198 0.041]\n",
"\t-0.058 1.884 0.114 [-3.826 3.604]\n",
"\t0.417 2.502 0.245 [-4.772 4.352]\n",
"\t-1.492 0.119 0.002 [-1.726 -1.26 ]\n",
"\t1.201 1.137 0.111 [-1.055 3.213]\n",
"\t0.025 1.885 0.137 [-3.741 3.671]\n",
"\t-0.046 1.922 0.131 [-3.962 3.723]\n",
"\t0.082 1.929 0.138 [-3.589 3.787]\n",
"\t-0.581 1.923 0.19 [-4.079 2.782]\n",
"\t0.036 2.049 0.156 [-3.748 4.27 ]\n",
"\t-0.793 1.772 0.171 [-4.194 2.557]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.921 -0.415 0.97 2.055 3.764\n",
"\t-2.902 -0.904 0.452 1.92 4.141\n",
"\t0.758 1.058 1.472 1.913 2.209\n",
"\t-2.943 -0.703 0.549 1.921 4.255\n",
"\t-2.673 -0.313 0.684 1.802 3.085\n",
"\t-3.644 -1.143 0.09 1.467 3.904\n",
"\t-3.827 -1.457 -0.04 1.317 3.81\n",
"\t-3.637 -1.109 0.256 1.73 4.486\n",
"\t-1.808 -1.68 -1.604 -1.532 -1.377\n",
"\t-2.925 -0.665 0.662 1.996 4.474\n",
"\t-3.338 -1.063 0.325 1.662 3.949\n",
"\t-1.398 -0.576 -0.495 -0.407 0.786\n",
"\t-3.288 -0.966 0.532 1.747 4.165\n",
"\t-4.21 -1.378 -0.115 1.189 4.113\n",
"\t-4.249 -1.685 -0.268 1.097 3.82\n",
"\t-4.867 -1.533 -0.124 1.175 4.454\n",
"\t0.869 1.237 1.517 1.76 2.424\n",
"\t-1.156 -0.462 -0.036 0.33 1.265\n",
"\t-3.695 -1.36 -0.16 0.964 3.014\n",
"\t-3.888 -1.528 -0.044 1.292 3.811\n",
"\t-0.472 0.913 2.409 3.184 4.647\n",
"\t-4.072 -1.578 -0.099 1.398 4.316\n",
"\t-1.166 -0.86 -0.515 -0.343 0.149\n",
"\t-4.008 -1.224 -0.013 1.204 3.487\n",
"\t-4.508 -1.5 0.9 2.115 4.794\n",
"\t-1.722 -1.571 -1.493 -1.414 -1.253\n",
"\t-1.401 0.463 1.257 2.112 2.991\n",
"\t-3.77 -1.173 0.048 1.27 3.644\n",
"\t-4.048 -1.223 -0.013 1.218 3.67\n",
"\t-3.629 -1.305 0.055 1.458 3.764\n",
"\t-3.966 -2.327 -0.4 0.869 3.015\n",
"\t-4.031 -1.345 0.058 1.437 4.051\n",
"\t-4.183 -2.203 -0.682 0.54 2.588\n",
"\t\n",
"\n",
"outlier_dist_sim_('B', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-0.033 2.0 0.017 [-3.907 3.871]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.899 -1.39 -0.022 1.322 3.908\n",
"\t\n",
"\n",
"outlier_('D', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.013 0.113 0.006 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.002 0.04 0.002 [ 0. 0.]\n",
"\t0.006 0.076 0.004 [ 0. 0.]\n",
"\t0.002 0.042 0.001 [ 0. 0.]\n",
"\t0.001 0.033 0.001 [ 0. 0.]\n",
"\t0.002 0.047 0.001 [ 0. 0.]\n",
"\t0.002 0.046 0.001 [ 0. 0.]\n",
"\t0.003 0.053 0.002 [ 0. 0.]\n",
"\t0.006 0.079 0.004 [ 0. 0.]\n",
"\t0.005 0.073 0.005 [ 0. 0.]\n",
"\t0.004 0.064 0.003 [ 0. 0.]\n",
"\t0.006 0.079 0.003 [ 0. 0.]\n",
"\t0.004 0.061 0.003 [ 0. 0.]\n",
"\t0.964 0.186 0.016 [ 1. 1.]\n",
"\t0.002 0.04 0.001 [ 0. 0.]\n",
"\t0.083 0.276 0.022 [ 0. 1.]\n",
"\t0.009 0.095 0.005 [ 0. 0.]\n",
"\t0.001 0.025 0.001 [ 0. 0.]\n",
"\t0.004 0.061 0.002 [ 0. 0.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.143 0.351 0.027 [ 0. 1.]\n",
"\t0.001 0.037 0.001 [ 0. 0.]\n",
"\t0.005 0.068 0.002 [ 0. 0.]\n",
"\t0.041 0.197 0.01 [ 0. 0.]\n",
"\t0.004 0.061 0.002 [ 0. 0.]\n",
"\t0.007 0.085 0.004 [ 0. 0.]\n",
"\t0.002 0.045 0.001 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.003 0.052 0.002 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t\n",
"\n",
"outlier_sim_('F', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.062 0.242 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_dist_('F', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.178 1.993 0.13 [-3.793 3.863]\n",
"\t0.642 1.512 0.148 [-2.566 3.49 ]\n",
"\t-0.344 1.813 0.144 [-4.109 3.174]\n",
"\t0.146 1.82 0.173 [-2.92 4.006]\n",
"\t0.581 1.74 0.165 [-2.119 4.345]\n",
"\t0.332 1.94 0.152 [-3.704 3.856]\n",
"\t-0.07 1.949 0.069 [-3.913 3.683]\n",
"\t-0.323 1.907 0.136 [-3.915 3.617]\n",
"\t-1.688 0.142 0.002 [-1.964 -1.41 ]\n",
"\t-0.004 1.731 0.157 [-3.309 3.553]\n",
"\t-0.611 2.453 0.241 [-4.915 4.305]\n",
"\t-0.22 2.014 0.167 [-4.002 3.913]\n",
"\t0.955 1.697 0.152 [-2.62 4.174]\n",
"\t0.007 2.113 0.156 [-4.032 4.054]\n",
"\t0.066 2.041 0.156 [-3.786 4.171]\n",
"\t-0.185 1.852 0.175 [-4.197 2.852]\n",
"\t0.001 1.941 0.136 [-3.787 3.736]\n",
"\t-0.157 1.961 0.185 [-4.484 3.391]\n",
"\t0.065 2.061 0.083 [-3.944 3.959]\n",
"\t0.121 1.877 0.162 [-3.563 3.673]\n",
"\t0.006 2.09 0.106 [-4.135 4.109]\n",
"\t-0.038 1.958 0.184 [-4.305 3.795]\n",
"\t0.255 2.033 0.158 [-3.457 4.485]\n",
"\t-0.182 2.002 0.138 [-4.047 3.543]\n",
"\t-0.226 2.046 0.175 [-4.156 3.5 ]\n",
"\t-4.157 0.144 0.002 [-4.431 -3.865]\n",
"\t0.278 1.932 0.185 [-4.094 3.8 ]\n",
"\t-0.1 1.974 0.165 [-4.327 3.625]\n",
"\t-0.157 1.999 0.114 [-4.159 3.761]\n",
"\t0.304 1.893 0.17 [-3.752 3.618]\n",
"\t0.551 1.939 0.153 [-3.287 4.091]\n",
"\t0.112 1.996 0.119 [-3.821 4.065]\n",
"\t0.174 1.685 0.159 [-2.798 3.581]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.823 -1.129 0.242 1.561 3.836\n",
"\t-2.421 -0.378 0.604 1.724 3.684\n",
"\t-4.194 -1.431 -0.284 0.875 3.134\n",
"\t-2.951 -1.267 0.125 1.292 3.986\n",
"\t-2.165 -0.726 0.294 1.772 4.322\n",
"\t-3.55 -0.928 0.352 1.676 4.039\n",
"\t-3.763 -1.431 -0.102 1.234 3.858\n",
"\t-3.863 -1.583 -0.4 0.901 3.674\n",
"\t-1.962 -1.781 -1.688 -1.597 -1.403\n",
"\t-3.416 -1.183 0.024 1.142 3.472\n",
"\t-5.875 -2.151 -0.607 0.981 3.761\n",
"\t-3.896 -1.591 -0.276 1.057 4.104\n",
"\t-2.329 -0.223 0.947 2.084 4.541\n",
"\t-3.925 -1.488 -0.094 1.458 4.196\n",
"\t-3.809 -1.398 0.069 1.44 4.154\n",
"\t-3.964 -1.517 -0.023 1.112 3.181\n",
"\t-3.892 -1.293 0.073 1.331 3.637\n",
"\t-4.676 -1.24 -0.229 1.231 3.271\n",
"\t-3.973 -1.378 0.091 1.47 3.945\n",
"\t-3.965 -1.113 0.275 1.404 3.439\n",
"\t-4.116 -1.364 -0.011 1.395 4.167\n",
"\t-4.171 -1.071 0.199 1.109 3.977\n",
"\t-3.684 -1.13 0.227 1.576 4.312\n",
"\t-4.027 -1.545 -0.174 1.215 3.591\n",
"\t-4.571 -1.608 -0.076 1.298 3.252\n",
"\t-4.44 -4.254 -4.156 -4.062 -3.872\n",
"\t-3.912 -0.892 0.339 1.539 4.016\n",
"\t-4.153 -1.365 -0.111 1.166 3.873\n",
"\t-4.097 -1.444 -0.137 1.141 3.851\n",
"\t-3.67 -0.882 0.442 1.642 3.744\n",
"\t-3.231 -0.762 0.576 1.938 4.177\n",
"\t-3.811 -1.228 0.12 1.404 4.086\n",
"\t-2.78 -1.122 0.13 1.327 3.614\n",
"\t\n",
"\n",
"outlier_dist_('C', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.639 1.777 0.157 [-2.656 4.557]\n",
"\t-0.297 2.198 0.197 [-4.741 3.66 ]\n",
"\t0.143 1.976 0.079 [-3.701 3.941]\n",
"\t0.166 2.02 0.171 [-3.855 4.163]\n",
"\t0.66 1.577 0.145 [-2.382 3.872]\n",
"\t-0.113 0.448 0.045 [-0.982 0.47 ]\n",
"\t-1.314 0.881 0.08 [-2.59 0.7 ]\n",
"\t-0.186 1.992 0.064 [-4.088 3.688]\n",
"\t0.028 2.012 0.182 [-3.5 4.466]\n",
"\t-0.129 1.943 0.111 [-3.831 3.78 ]\n",
"\t0.071 2.01 0.082 [-3.908 3.898]\n",
"\t-0.098 1.827 0.125 [-3.438 3.56 ]\n",
"\t0.041 2.112 0.13 [-4.19 4.004]\n",
"\t-0.015 1.967 0.064 [-3.788 3.932]\n",
"\t0.035 2.038 0.203 [-3.624 3.841]\n",
"\t0.063 1.966 0.097 [-3.688 3.89 ]\n",
"\t0.46 1.607 0.045 [-3.429 3.4 ]\n",
"\t0.608 1.708 0.141 [-4.061 3.324]\n",
"\t0.239 1.739 0.168 [-3.484 3.428]\n",
"\t0.591 2.083 0.191 [-3.583 4.819]\n",
"\t-0.529 1.486 0.135 [-3.217 2.312]\n",
"\t0.023 1.987 0.13 [-3.797 3.949]\n",
"\t-0.052 2.052 0.116 [-3.968 4.063]\n",
"\t-0.138 1.742 0.106 [-3.587 3.206]\n",
"\t0.008 1.846 0.138 [-3.445 3.678]\n",
"\t-0.275 2.122 0.179 [-4.602 3.549]\n",
"\t-0.045 1.962 0.12 [-3.992 3.638]\n",
"\t0.008 1.915 0.107 [-3.707 3.745]\n",
"\t-0.036 2.036 0.136 [-3.894 4.012]\n",
"\t0.017 2.016 0.099 [-3.755 4.023]\n",
"\t-0.005 1.984 0.133 [-4.029 3.756]\n",
"\t-0.118 2.017 0.178 [-4.121 3.788]\n",
"\t-0.09 2.053 0.12 [-4.219 3.776]\n",
"\t0.168 1.985 0.183 [-3.664 3.863]\n",
"\t-0.187 1.26 0.124 [-2.812 2.028]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.696 -0.583 0.56 1.724 4.54\n",
"\t-4.606 -1.821 -0.28 1.257 3.855\n",
"\t-3.725 -1.184 0.193 1.476 3.937\n",
"\t-3.597 -1.203 0.056 1.506 4.598\n",
"\t-2.59 -0.382 0.629 1.718 3.768\n",
"\t-0.986 -0.344 -0.034 0.266 0.469\n",
"\t-2.291 -1.715 -1.46 -1.17 1.96\n",
"\t-4.049 -1.541 -0.196 1.134 3.746\n",
"\t-4.164 -1.276 0.084 1.33 4.076\n",
"\t-4.029 -1.4 -0.111 1.146 3.649\n",
"\t-3.86 -1.272 0.123 1.415 3.981\n",
"\t-3.476 -1.398 -0.14 1.162 3.55\n",
"\t-4.276 -1.368 0.119 1.477 3.931\n",
"\t-3.904 -1.35 0.019 1.292 3.838\n",
"\t-3.48 -1.053 -0.423 1.353 4.171\n",
"\t-3.76 -1.276 0.019 1.403 3.838\n",
"\t-3.449 -0.3 0.855 1.311 3.394\n",
"\t-3.861 0.208 1.055 1.46 3.585\n",
"\t-3.616 -0.788 0.313 1.45 3.329\n",
"\t-4.781 -0.485 0.8 1.97 4.241\n",
"\t-3.508 -1.615 -0.495 0.558 2.152\n",
"\t-3.881 -1.337 0.081 1.348 3.879\n",
"\t-3.925 -1.445 -0.125 1.325 4.146\n",
"\t-3.509 -1.255 -0.245 1.091 3.304\n",
"\t-3.582 -1.244 -0.055 1.275 3.592\n",
"\t-4.492 -1.687 -0.286 1.145 3.717\n",
"\t-3.988 -1.347 -0.067 1.293 3.65\n",
"\t-3.919 -1.273 0.143 1.254 3.606\n",
"\t-4.092 -1.377 -0.061 1.37 3.901\n",
"\t-3.787 -1.338 -0.017 1.383 4.013\n",
"\t-4.054 -1.256 -0.023 1.332 3.75\n",
"\t-4.087 -1.444 -0.035 1.192 3.834\n",
"\t-4.394 -1.43 -0.05 1.356 3.666\n",
"\t-3.704 -1.246 0.26 1.581 3.85\n",
"\t-2.971 -1.009 -0.136 0.829 1.881\n",
"\t\n",
"\n",
"outlier_dist_sim_('E', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.004 1.994 0.016 [-4.002 3.865]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.93 -1.341 0.018 1.334 3.975\n",
"\t\n",
"\n",
"outlier_('F', 'LB'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.0 0.021 0.0 [ 0. 0.]\n",
"\t0.002 0.049 0.002 [ 0. 0.]\n",
"\t0.011 0.106 0.006 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.005 0.07 0.003 [ 0. 0.]\n",
"\t0.0 0.019 0.0 [ 0. 0.]\n",
"\t0.001 0.032 0.001 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.009 0.094 0.005 [ 0. 0.]\n",
"\t0.017 0.129 0.006 [ 0. 0.]\n",
"\t0.005 0.072 0.004 [ 0. 0.]\n",
"\t0.009 0.093 0.005 [ 0. 0.]\n",
"\t0.007 0.081 0.003 [ 0. 0.]\n",
"\t0.001 0.03 0.001 [ 0. 0.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.001 0.024 0.001 [ 0. 0.]\n",
"\t0.016 0.126 0.007 [ 0. 0.]\n",
"\t0.0 0.021 0.0 [ 0. 0.]\n",
"\t0.0 0.012 0.0 [ 0. 0.]\n",
"\t0.0 0.0 0.0 [ 0. 0.]\n",
"\t0.003 0.058 0.003 [ 0. 0.]\n",
"\t0.001 0.025 0.001 [ 0. 0.]\n",
"\t0.003 0.05 0.002 [ 0. 0.]\n",
"\t1.0 0.0 0.0 [ 1. 1.]\n",
"\t0.003 0.055 0.002 [ 0. 0.]\n",
"\t0.009 0.097 0.003 [ 0. 0.]\n",
"\t0.008 0.091 0.006 [ 0. 0.]\n",
"\t0.001 0.036 0.001 [ 0. 0.]\n",
"\t0.001 0.037 0.001 [ 0. 0.]\n",
"\t0.001 0.038 0.001 [ 0. 0.]\n",
"\t0.027 0.161 0.01 [ 0. 0.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t1.0 1.0 1.0 1.0 1.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 0.0\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_sim_('A', 'LB_IPTG'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.057 0.232 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"outlier_sim_('C', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.062 0.241 0.002 [ 0. 1.]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.0 0.0 0.0 0.0 1.0\n",
"\t\n",
"\n",
"true_val_('B', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.617 0.142 0.003 [-2.885 -2.329]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-2.891 -2.716 -2.618 -2.521 -2.334\n",
"\t\n",
"\n",
"true_val_('A', 'LB'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t-2.93 0.118 0.003 [-3.16 -2.697]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-3.158 -3.009 -2.932 -2.854 -2.693\n",
"\t\n",
"\n",
"std_('E', 'LB_IPTG_GLU'):"
]
},
{
"output_type": "stream",
"stream": "stdout",
"text": [
"\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.115 0.022 0.001 [ 0.073 0.156]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.076 0.099 0.115 0.13 0.161\n",
"\t\n",
"\n",
"std_('D', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.106 0.019 0.001 [ 0.072 0.143]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.074 0.091 0.104 0.118 0.147\n",
"\t\n",
"\n",
"std_('B', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.081 0.013 0.001 [ 0.057 0.106]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t0.059 0.071 0.08 0.089 0.11\n",
"\t\n",
"\n",
"msd_val_sim_('E', 'LB_IPTG_GLU'):\n",
" \n",
"\tMean SD MC Error 95% HPD interval\n",
"\t------------------------------------------------------------------\n",
"\t0.058 0.515 0.004 [-0.433 0.511]\n",
"\t\n",
"\t\n",
"\tPosterior quantiles:\n",
"\t\n",
"\t2.5 25 50 75 97.5\n",
"\t |---------------|===============|===============|---------------|\n",
"\t-0.368 -0.03 0.054 0.137 0.643\n",
"\t\n"
]
}
],
"prompt_number": 138
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"plt.plot(outl.mean(axis=0), 'd')\n",
"plt.plot(true_val.mean() - values, 'x')"
],
"language": "python",
"metadata": {},
"outputs": [
{
"metadata": {},
"output_type": "pyout",
"prompt_number": 82,
"text": [
"[<matplotlib.lines.Line2D at 0x9dd7690>]"
]
},
{
"metadata": {},
"output_type": "display_data",
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mP1l+Kdvgk08+wdatWxGNRgEAX/3qV7FixQoR858su+a5j1lEJBKJPfroo7GB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\ngg==\n",
"text": [
"<matplotlib.figure.Figure at 0x8886290>"
]
}
],
"prompt_number": 82
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"plt.plot(outl.mean(axis=0), 'd')\n",
"plt.plot(true_val.mean() - values, 'x')"
],
"language": "python",
"metadata": {},
"outputs": [
{
"metadata": {},
"output_type": "pyout",
"prompt_number": 65,
"text": [
"[<matplotlib.lines.Line2D at 0xbcd1390>]"
]
},
{
"metadata": {},
"output_type": "display_data",
"png": 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s0jQU/Oqm/my1tV/gP7d/gIar5sMTGwPDhYvI+PwI7r3rB7jyyoxB6z79tRP/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\nBw9QWgC9YT1RAAAAAElFTkSuQmCC\n",
"text": [
"<matplotlib.figure.Figure at 0xbcc40d0>"
]
}
],
"prompt_number": 65
},
{
"cell_type": "code",
"collapsed": false,
"input": [
"#a = np.array([ 0.133, 0.008, 0.002, 0.004, 0.002, 0.001])\n",
"#a = np.array([-3.9633163 , -4.50986001, -4.96184513, -5.11599581, -5.80914299,\n",
"# -4.82831374])\n",
"#sm.robust.scale.huber(a)"
],
"language": "python",
"metadata": {},
"outputs": [],
"prompt_number": 15
}
],
"metadata": {}
}
]
}
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