diff --git a/AA1000_simulation_10MC_50exp_1batch.png b/AA1000_simulation_10MC_50exp_1batch.png
deleted file mode 100644
index 4e7e429..0000000
Binary files a/AA1000_simulation_10MC_50exp_1batch.png and /dev/null differ
diff --git a/can_baybe-inhibitor.ipynb b/can_baybe-inhibitor.ipynb
index 271be05..72a77ae 100644
--- a/can_baybe-inhibitor.ipynb
+++ b/can_baybe-inhibitor.ipynb
@@ -30,9 +30,19 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 114,
+   "execution_count": 1,
    "metadata": {},
    "outputs": [
+    {
+     "name": "stderr",
+     "output_type": "stream",
+     "text": [
+      "/home/vscode/.local/lib/python3.10/site-packages/baybe/telemetry.py:222: UserWarning: WARNING: BayBE Telemetry endpoint https://public.telemetry.baybe.p.uptimize.merckgroup.com:4317 cannot be reached. Disabling telemetry. The exception encountered was: ConnectionError, HTTPConnectionPool(host='verkehrsnachrichten.merck.de', port=80): Max retries exceeded with url: / (Caused by NameResolutionError(\"<urllib3.connection.HTTPConnection object at 0x7f6b5b6b8cd0>: Failed to resolve 'verkehrsnachrichten.merck.de' ([Errno -2] Name or service not known)\"))\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/tqdm/auto.py:21: TqdmWarning: IProgress not found. Please update jupyter and ipywidgets. See https://ipywidgets.readthedocs.io/en/stable/user_install.html\n",
+      "  from .autonotebook import tqdm as notebook_tqdm\n"
+     ]
+    },
     {
      "data": {
       "text/html": [
@@ -65,48 +75,48 @@
        "  <tbody>\n",
        "    <tr>\n",
        "      <th>0</th>\n",
-       "      <td>C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O</td>\n",
-       "      <td>0.0</td>\n",
-       "      <td>2.0</td>\n",
-       "      <td>5.000000e-07</td>\n",
-       "      <td>2</td>\n",
-       "      <td>53.85</td>\n",
+       "      <td>C(=O)(C(=O)[O-])[O-]</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>4.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>20.00</td>\n",
        "    </tr>\n",
        "    <tr>\n",
        "      <th>1</th>\n",
-       "      <td>C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O</td>\n",
-       "      <td>0.0</td>\n",
-       "      <td>2.0</td>\n",
-       "      <td>1.000000e-06</td>\n",
-       "      <td>2</td>\n",
-       "      <td>58.55</td>\n",
+       "      <td>C(=O)(C(=O)[O-])[O-]</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>7.0</td>\n",
+       "      <td>0.0005</td>\n",
+       "      <td>0.05</td>\n",
+       "      <td>12.35</td>\n",
        "    </tr>\n",
        "    <tr>\n",
        "      <th>2</th>\n",
-       "      <td>C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O</td>\n",
-       "      <td>0.0</td>\n",
-       "      <td>2.0</td>\n",
-       "      <td>5.000000e-06</td>\n",
-       "      <td>2</td>\n",
-       "      <td>67.40</td>\n",
+       "      <td>C(=O)(C(=O)[O-])[O-]</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>10.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>20.00</td>\n",
        "    </tr>\n",
        "    <tr>\n",
        "      <th>3</th>\n",
        "      <td>C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O</td>\n",
-       "      <td>0.0</td>\n",
-       "      <td>2.0</td>\n",
-       "      <td>1.000000e-05</td>\n",
-       "      <td>2</td>\n",
-       "      <td>86.65</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>4.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>30.00</td>\n",
        "    </tr>\n",
        "    <tr>\n",
        "      <th>4</th>\n",
        "      <td>C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O</td>\n",
-       "      <td>0.0</td>\n",
-       "      <td>2.0</td>\n",
-       "      <td>5.000000e-05</td>\n",
-       "      <td>2</td>\n",
-       "      <td>73.90</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>7.0</td>\n",
+       "      <td>0.0005</td>\n",
+       "      <td>0.05</td>\n",
+       "      <td>-23.95</td>\n",
        "    </tr>\n",
        "    <tr>\n",
        "      <th>...</th>\n",
@@ -118,86 +128,86 @@
        "      <td>...</td>\n",
        "    </tr>\n",
        "    <tr>\n",
-       "      <th>303</th>\n",
-       "      <td>S=c1sc2c([nH]1)cccc2</td>\n",
-       "      <td>384.0</td>\n",
-       "      <td>-0.6</td>\n",
-       "      <td>4.200000e-03</td>\n",
-       "      <td>0</td>\n",
-       "      <td>70.60</td>\n",
+       "      <th>510</th>\n",
+       "      <td>c1ccc2c(c1)[nH]nn2</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>7.0</td>\n",
+       "      <td>0.0005</td>\n",
+       "      <td>0.05</td>\n",
+       "      <td>97.95</td>\n",
        "    </tr>\n",
        "    <tr>\n",
-       "      <th>304</th>\n",
-       "      <td>S=c1sc2c([nH]1)cccc2</td>\n",
-       "      <td>384.0</td>\n",
-       "      <td>-0.6</td>\n",
-       "      <td>5.300000e-03</td>\n",
-       "      <td>0</td>\n",
-       "      <td>79.77</td>\n",
+       "      <th>511</th>\n",
+       "      <td>c1ccc2c(c1)[nH]nn2</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>10.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>90.00</td>\n",
        "    </tr>\n",
        "    <tr>\n",
-       "      <th>305</th>\n",
-       "      <td>S=c1sc2c([nH]1)cccc2</td>\n",
-       "      <td>384.0</td>\n",
-       "      <td>-0.6</td>\n",
-       "      <td>6.500000e-03</td>\n",
-       "      <td>0</td>\n",
-       "      <td>76.72</td>\n",
+       "      <th>512</th>\n",
+       "      <td>c1ccc2c(c1)[nH]nn2</td>\n",
+       "      <td>672.0</td>\n",
+       "      <td>7.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>98.00</td>\n",
        "    </tr>\n",
        "    <tr>\n",
-       "      <th>306</th>\n",
-       "      <td>S=c1sc2c([nH]1)cccc2</td>\n",
-       "      <td>384.0</td>\n",
-       "      <td>-0.6</td>\n",
-       "      <td>7.500000e-03</td>\n",
-       "      <td>0</td>\n",
-       "      <td>75.44</td>\n",
+       "      <th>513</th>\n",
+       "      <td>c1ncn[nH]1</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>4.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>30.00</td>\n",
        "    </tr>\n",
        "    <tr>\n",
-       "      <th>307</th>\n",
-       "      <td>S=c1sc2c([nH]1)cccc2</td>\n",
-       "      <td>384.0</td>\n",
-       "      <td>-0.6</td>\n",
-       "      <td>8.500000e-03</td>\n",
-       "      <td>0</td>\n",
-       "      <td>77.22</td>\n",
+       "      <th>514</th>\n",
+       "      <td>c1ncn[nH]1</td>\n",
+       "      <td>24.0</td>\n",
+       "      <td>10.0</td>\n",
+       "      <td>0.0010</td>\n",
+       "      <td>0.10</td>\n",
+       "      <td>90.00</td>\n",
        "    </tr>\n",
        "  </tbody>\n",
        "</table>\n",
-       "<p>308 rows × 6 columns</p>\n",
+       "<p>515 rows × 6 columns</p>\n",
        "</div>"
       ],
       "text/plain": [
-       "                                    SMILES  Time_h   pH  Inhib_Concentrat_M  \\\n",
-       "0    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O     0.0  2.0        5.000000e-07   \n",
-       "1    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O     0.0  2.0        1.000000e-06   \n",
-       "2    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O     0.0  2.0        5.000000e-06   \n",
-       "3    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O     0.0  2.0        1.000000e-05   \n",
-       "4    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O     0.0  2.0        5.000000e-05   \n",
-       "..                                     ...     ...  ...                 ...   \n",
-       "303                   S=c1sc2c([nH]1)cccc2   384.0 -0.6        4.200000e-03   \n",
-       "304                   S=c1sc2c([nH]1)cccc2   384.0 -0.6        5.300000e-03   \n",
-       "305                   S=c1sc2c([nH]1)cccc2   384.0 -0.6        6.500000e-03   \n",
-       "306                   S=c1sc2c([nH]1)cccc2   384.0 -0.6        7.500000e-03   \n",
-       "307                   S=c1sc2c([nH]1)cccc2   384.0 -0.6        8.500000e-03   \n",
+       "                                    SMILES  Time_h    pH  Inhib_Concentrat_M  \\\n",
+       "0                     C(=O)(C(=O)[O-])[O-]    24.0   4.0              0.0010   \n",
+       "1                     C(=O)(C(=O)[O-])[O-]    24.0   7.0              0.0005   \n",
+       "2                     C(=O)(C(=O)[O-])[O-]    24.0  10.0              0.0010   \n",
+       "3    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O    24.0   4.0              0.0010   \n",
+       "4    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O    24.0   7.0              0.0005   \n",
+       "..                                     ...     ...   ...                 ...   \n",
+       "510                     c1ccc2c(c1)[nH]nn2    24.0   7.0              0.0005   \n",
+       "511                     c1ccc2c(c1)[nH]nn2    24.0  10.0              0.0010   \n",
+       "512                     c1ccc2c(c1)[nH]nn2   672.0   7.0              0.0010   \n",
+       "513                             c1ncn[nH]1    24.0   4.0              0.0010   \n",
+       "514                             c1ncn[nH]1    24.0  10.0              0.0010   \n",
        "\n",
        "     Salt_Concentrat_M  Efficiency  \n",
-       "0                    2       53.85  \n",
-       "1                    2       58.55  \n",
-       "2                    2       67.40  \n",
-       "3                    2       86.65  \n",
-       "4                    2       73.90  \n",
+       "0                 0.10       20.00  \n",
+       "1                 0.05       12.35  \n",
+       "2                 0.10       20.00  \n",
+       "3                 0.10       30.00  \n",
+       "4                 0.05      -23.95  \n",
        "..                 ...         ...  \n",
-       "303                  0       70.60  \n",
-       "304                  0       79.77  \n",
-       "305                  0       76.72  \n",
-       "306                  0       75.44  \n",
-       "307                  0       77.22  \n",
+       "510               0.05       97.95  \n",
+       "511               0.10       90.00  \n",
+       "512               0.10       98.00  \n",
+       "513               0.10       30.00  \n",
+       "514               0.10       90.00  \n",
        "\n",
-       "[308 rows x 6 columns]"
+       "[515 rows x 6 columns]"
       ]
      },
-     "execution_count": 114,
+     "execution_count": 1,
      "metadata": {},
      "output_type": "execute_result"
     }
@@ -218,29 +228,31 @@
     "from baybe.targets import NumericalTarget\n",
     "\n",
     "df_AA2024 = pd.read_excel('data/averaged_filtered_AA2024.xlsx')\n",
+    "df_AA5000 = pd.read_excel('data/averaged_filtered_AA5000.xlsx')\n",
+    "df_AA7075 = pd.read_excel('data/averaged_filtered_AA7075.xlsx')\n",
     "df_AA1000 = pd.read_excel('data/averaged_filtered_AA1000.xlsx')\n",
     "df_Al = pd.read_excel('data/averaged_filtered_Al.xlsx')\n",
     "\n",
-    "df_active = df_AA1000\n",
-    "df_active"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 115,
-   "metadata": {},
-   "outputs": [],
-   "source": [
-    "# SMOKE_TEST = \"SMOKE_TEST\" in os.environ\n",
+    "# change this for campaigns on different datasets\n",
+    "df_active = df_AA2024\n",
+    "\n",
+    "if df_active is df_AA2024:\n",
+    "    exp_dataset_name = 'AA2024'\n",
+    "elif df_active is df_AA5000:\n",
+    "    exp_dataset_name = 'AA5000'\n",
+    "elif df_active is df_AA7075:\n",
+    "    exp_dataset_name = 'AA7075'\n",
+    "elif df_active is df_AA1000:\n",
+    "    exp_dataset_name = 'AA1000'\n",
+    "elif df_active is df_Al:\n",
+    "    exp_dataset_name = 'Al'\n",
     "\n",
-    "# N_MC_ITERATIONS = 2 if SMOKE_TEST else 5\n",
-    "# N_DOE_ITERATIONS = 2 if SMOKE_TEST else 5\n",
-    "# BATCH_SIZE = 1 if SMOKE_TEST else 3"
+    "df_active"
    ]
   },
   {
    "cell_type": "code",
-   "execution_count": 116,
+   "execution_count": 2,
    "metadata": {},
    "outputs": [],
    "source": [
@@ -249,7 +261,7 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 117,
+   "execution_count": 3,
    "metadata": {},
    "outputs": [],
    "source": [
@@ -264,7 +276,7 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 118,
+   "execution_count": 4,
    "metadata": {},
    "outputs": [],
    "source": [
@@ -363,9 +375,508 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 119,
+   "execution_count": 5,
    "metadata": {},
-   "outputs": [],
+   "outputs": [
+    {
+     "name": "stdout",
+     "output_type": "stream",
+     "text": [
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C(=O)(C(=O)[O-])[O-]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.3s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1=CC(=C(C=C1O)O)C=NNC(=S)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.4s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1=CC(=CC(=C1)S)C(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1=CC2=NNN=C2C=C1Cl')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1=CC=C(C(=C1)C=NNC(=S)N)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1COCCN1CCCS(=O)(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C1N2CN3CN1CN(C2)C3')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('C=CC(=O)OCCOC(=O)OCCSc1ncccn1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CC(=O)SSC(=O)C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.3s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCC/C=C\\\\CCCCCCCC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCCCCCCCCCCCC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCCCCCCOS(=O)(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCCCCCCc1ccccc1S([O])([O])O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.3s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCCCOP(=O)(OCCCC)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCN(C(=S)S)CC')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCOc1ccc2c(c1)nc([nH]2)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CCSc1nnc(s1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CN1C=NC2=C1C(=O)N(C(=O)N2C)C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CNCC(C1=CC(=CC=C1)O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('COC(=O)CCCC1=CNC2=CC=CC=C21')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('COC(=O)n1nnc2ccccc12')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('COCCOC(=O)OCSc1nc2c(s1)cccc2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('COc1ccc2c(c1)[nH]c(=S)[nH]2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('COc1cccc(c1)c1n[nH]c(=S)[nH]1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CS[C]1N[N]C(=N1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CSc1[nH]c2c(n1)cc(c(c2)C)C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('CSc1nnc(s1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cc1cc(C)nc(n1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cc1ccc(c(c1)n1nc2c(n1)cccc2)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.3s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cc1ccc2c(c1)nc([nH]2)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cc1n[nH]c(=S)s1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cc1nsc(c1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('ClC([C]1N[N]C=N1)(Cl)Cl')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Clc1cc2[nH]c(=S)[nH]c2cc1Cl')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Clc1ccc2c(c1)[nH]c(n2)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Clc1cccc(c1)c1n[nH]c(=S)[nH]1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cn1cnnc1S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Cn1nnnc1S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('NCC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('NO')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1cc(N)nc(n1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1cc(S)nc(n1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1ccc2c(c1)sc(=S)[nH]2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1ccnc(n1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1n[nH]c(=S)s1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1n[nH]c(n1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1n[nH]cn1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1nc([nH]n1)C(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nc1ncncc1N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nn1c(NN)nnc1S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nn1c(S)nnc1c1ccccc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Nn1cnnc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('O/N=C(/C(=N/O)/C)\\\\C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)/C=C/c1ccccc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)CCCCC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)CCCCCCCCCCCCCCC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)CCS')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)CS')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)Cn1nnnc1S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccc(=S)[nH]c1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccc(cc1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccc(cc1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccc(cc1)c1ccccc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccccc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccccc1O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccccc1S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccccn1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1cccnc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1cccnc1S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1ccncc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC(=O)c1n[nH]c(n1)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OCC(CO)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('O[C@H]1C(=O)OCC1(C)C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Oc1ccc(cc1)C(=O)O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Oc1ccc(cc1)S([O])([O])O')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Oc1cccc2c1nccc2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Oc1ccccc1c1nnc([nH]1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('On1nnc2c1cccc2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1[nH]c2c([nH]1)c(=O)n(cn2)C')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1[nH]c2c([nH]1)cncn2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1[nH]c2c([nH]1)nccn2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1[nH]nc([nH]1)c1cccnc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.2s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1[nH]nc([nH]1)c1ccco1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1[nH]nc([nH]1)c1ccncc1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S=c1sc2c([nH]1)cccc2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('SC#N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('S[C]1NC2=C[CH]C=NC2=N1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1n[nH]cn1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1nc(N)c(c(n1)S)N')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1nc(N)c2c(n1)[nH]nc2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1nc2c([nH]1)cccc2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1ncc[nH]1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1ncccn1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('Sc1nnc(s1)S')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('[Cl-].[Cl-].[Cl-].[Ce+3]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('[O-]S(=O)[O-].[Na+].[Na+]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('c1ccc(nc1)c1ccccn1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('c1ccc2c(c1)[nH]nn2')\n",
+      "_______________________________________smiles_to_mordred_features - 0.1s, 0.0min\n",
+      "________________________________________________________________________________\n",
+      "[Memory] Calling baybe.utils.chemistry._smiles_to_mordred_features...\n",
+      "_smiles_to_mordred_features('c1ncn[nH]1')\n",
+      "_______________________________________smiles_to_mordred_features - 0.0s, 0.0min\n"
+     ]
+    }
+   ],
    "source": [
     "df_no_target = lookup.drop('Efficiency', axis=1)\n",
     "\n",
@@ -392,172 +903,159 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 120,
+   "execution_count": 6,
    "metadata": {},
    "outputs": [
     {
      "data": {
       "text/plain": [
-       "SearchSpace(discrete=SubspaceDiscrete(parameters=[NumericalDiscreteParameter(name='Time_h', encoding=None, _values=[0.0, 0.25, 0.5, 0.75, 1.0, 1.5, 2.0, 2.5, 3.0, 3.5, 4.0, 4.5, 5.0, 5.5, 6.0, 24.0, 48.0, 72.0, 96.0, 120.0, 144.0, 168.0, 192.0, 240.0, 288.0, 336.0, 384.0], tolerance=0.0), NumericalDiscreteParameter(name='pH', encoding=None, _values=[-0.6, -0.4771212547196624, -0.3979400086720376, -0.3010299956639812, -0.1760912590556812, 0.0, 0.3, 0.45, 1.0, 2.0, 7.0, 13.0], tolerance=0.0), NumericalDiscreteParameter(name='Inhib_Concentrat_M', encoding=None, _values=[1e-07, 5e-07, 1e-06, 2e-06, 4e-06, 5e-06, 6e-06, 8e-06, 1e-05, 1.2e-05, 2e-05, 4e-05, 5e-05, 6e-05, 8e-05, 0.0001, 0.0001958863858961802, 0.0002, 0.0003, 0.0003566333808844508, 0.0003917727717923605, 0.0004, 0.0005, 0.0005876591576885406, 0.0006, 0.0007132667617689017, 0.0007835455435847209, 0.0008, 0.0009794319294809011, 0.001, 0.0011, 0.0012, 0.0013, 0.0014, 0.0015, 0.0016, 0.001783166904422254, 0.0018, 0.0019, 0.002, 0.002139800285306705, 0.0025, 0.0026, 0.003, 0.0032, 0.003566333808844508, 0.0039, 0.004, 0.0042, 0.00427960057061341, 0.005, 0.0053, 0.005706134094151214, 0.0065, 0.0075, 0.0085, 0.01, 0.015, 0.02, 0.04, 0.06, 0.08, 0.1], tolerance=0.0), NumericalDiscreteParameter(name='Salt_Concentrat_M', encoding=None, _values=[0.0, 1.0, 2.0], tolerance=0.0), SubstanceParameter(name='SMILES', data={'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O': 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O', 'C(C(CO)([N+](=O)[O-])Br)O': 'C(C(CO)([N+](=O)[O-])Br)O', 'C(CC=O)CC=O': 'C(CC=O)CC=O', 'C1=CC(=C(C=C1F)F)C(CN2C=NC=N2)(CN3C=NC=N3)O': 'C1=CC(=C(C=C1F)F)C(CN2C=NC=N2)(CN3C=NC=N3)O', 'C1=CC(=CN=C1)C=NNC(=S)N': 'C1=CC(=CN=C1)C=NNC(=S)N', 'C1=CC(=NC(=C1)N)N': 'C1=CC(=NC(=C1)N)N', 'C1=CC=C(C=C1)C(C2=CC=CC=C2)(C3=CC=CC=C3Cl)N4C=CN=C4': 'C1=CC=C(C=C1)C(C2=CC=CC=C2)(C3=CC=CC=C3Cl)N4C=CN=C4', 'C1=CC=NC(=C1)C=NNC(=S)N': 'C1=CC=NC(=C1)C=NNC(=S)N', 'C1=CN=C(C=N1)C(=O)N': 'C1=CN=C(C=N1)C(=O)N', 'C1=CN=C(N=C1)N': 'C1=CN=C(N=C1)N', 'C1=CN=CC=C1C=NNC(=S)N': 'C1=CN=CC=C1C=NNC(=S)N', 'C1CCC(=NO)CC1': 'C1CCC(=NO)CC1', 'C1N2CN3CN1CN(C2)C3': 'C1N2CN3CN1CN(C2)C3', 'C=CC1=C(N2C(C(C2=O)NC(=O)C(=NOCC(=O)O)C3=CSC(=N3)N)SC1)C(=O)O': 'C=CC1=C(N2C(C(C2=O)NC(=O)C(=NOCC(=O)O)C3=CSC(=N3)N)SC1)C(=O)O', 'CC(=NO)C': 'CC(=NO)C', 'CC(C)(C)NCC(COC1=CC=CC2=C1CC(C(C2)O)O)O': 'CC(C)(C)NCC(COC1=CC=CC2=C1CC(C(C2)O)O)O', 'CC(C)(C)NCC(COC1=NSN=C1N2CCOCC2)O': 'CC(C)(C)NCC(COC1=NSN=C1N2CCOCC2)O', 'CC(C)NCC(COC1=CC=C(C=C1)CC(=O)N)O': 'CC(C)NCC(COC1=CC=C(C=C1)CC(=O)N)O', 'CC(C)NCC(COC1=CC=CC2=CC=CC=C21)O': 'CC(C)NCC(COC1=CC=CC2=CC=CC=C21)O', 'CC(OC(=O)C)OC(=O)C1=C(CSC2N1C(=O)C2NC(=O)C(=NOC)C3=CC=CO3)COC(=O)N': 'CC(OC(=O)C)OC(=O)C1=C(CSC2N1C(=O)C2NC(=O)C(=NOC)C3=CC=CO3)COC(=O)N', 'CC1=CC=C(C=C1)[N]2N=NC=C2O': 'CC1=CC=C(C=C1)[N]2N=NC=C2O', 'CC1=CN=C(C=N1)C(=O)N': 'CC1=CN=C(C=N1)C(=O)N', 'CC1=NC(=CC=C1)C': 'CC1=NC(=CC=C1)C', 'CCC(=NO)C': 'CCC(=NO)C', 'CCOC(=O)C1=C(C)N=C(S)NC1C2=CC=C(C=C2)Cl': 'CCOC(=O)C1=C(C)N=C(S)NC1C2=CC=C(C=C2)Cl', 'CN(C)CC1CCCCC1(C2=CC(=CC=C2)OC)O': 'CN(C)CC1CCCCC1(C2=CC(=CC=C2)OC)O', 'COC(=O)C1=CC=C(C=C1)[N]2N=NC=C2O': 'COC(=O)C1=CC=C(C=C1)[N]2N=NC=C2O', 'COC1=NC=C(N=C1)C(=O)N': 'COC1=NC=C(N=C1)C(=O)N', 'NC(N)=S': 'NC(N)=S', 'NC1=CCNC(=S)N1': 'NC1=CCNC(=S)N1', 'OC1=C(C=CC=C1)C=NC2=CC=C(C=C2)N=NC3=C(C=CC=C3)N=CC4=C(C=CC=C4)O': 'OC1=C(C=CC=C1)C=NC2=CC=C(C=C2)N=NC3=C(C=CC=C3)N=CC4=C(C=CC=C4)O', 'OC1=CN=N[N]1C2=CC=C(C=C2)Cl': 'OC1=CN=N[N]1C2=CC=C(C=C2)Cl', 'S=c1sc2c([nH]1)cccc2': 'S=c1sc2c([nH]1)cccc2'}, decorrelate=0.7, encoding=<SubstanceEncoding.RDKIT: 'RDKIT'>)], exp_rep=     Time_h   pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
-       "0       0.0  2.0        5.000000e-07                  2   \n",
-       "1       0.0  2.0        1.000000e-06                  2   \n",
-       "2       0.0  2.0        5.000000e-06                  2   \n",
-       "3       0.0  2.0        1.000000e-05                  2   \n",
-       "4       0.0  2.0        5.000000e-05                  2   \n",
-       "..      ...  ...                 ...                ...   \n",
-       "303   384.0 -0.6        4.200000e-03                  0   \n",
-       "304   384.0 -0.6        5.300000e-03                  0   \n",
-       "305   384.0 -0.6        6.500000e-03                  0   \n",
-       "306   384.0 -0.6        7.500000e-03                  0   \n",
-       "307   384.0 -0.6        8.500000e-03                  0   \n",
+       "SearchSpace(discrete=SubspaceDiscrete(parameters=[NumericalDiscreteParameter(name='Time_h', encoding=None, _values=[0.5, 1.0, 2.0, 3.0, 6.0, 24.0, 48.0, 72.0, 96.0, 120.0, 144.0, 168.0, 192.0, 240.0, 288.0, 336.0, 360.0, 384.0, 432.0, 480.0, 528.0, 576.0, 600.0, 624.0, 672.0], tolerance=0.0), NumericalDiscreteParameter(name='pH', encoding=None, _values=[0.0, 3.3, 4.0, 4.4, 5.4, 5.5, 5.6, 7.0, 10.0], tolerance=0.0), NumericalDiscreteParameter(name='Inhib_Concentrat_M', encoding=None, _values=[1e-05, 5e-05, 0.0001, 0.0002, 0.0003, 0.0004, 0.0005, 0.0006, 0.0008, 0.001, 0.0012, 0.0018, 0.0024, 0.003, 0.005, 0.01, 0.011, 0.021, 0.022, 0.031, 0.033, 0.042, 0.044, 0.05, 0.1], tolerance=0.0), NumericalDiscreteParameter(name='Salt_Concentrat_M', encoding=None, _values=[0.0, 0.01, 0.05, 0.1, 0.5, 0.6], tolerance=0.0), SubstanceParameter(name='SMILES', data={'C(=O)(C(=O)[O-])[O-]': 'C(=O)(C(=O)[O-])[O-]', 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O': 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]', 'C1=CC(=C(C=C1O)O)C=NNC(=S)N': 'C1=CC(=C(C=C1O)O)C=NNC(=S)N', 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]': 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]', 'C1=CC(=CC(=C1)S)C(=O)O': 'C1=CC(=CC(=C1)S)C(=O)O', 'C1=CC2=NNN=C2C=C1Cl': 'C1=CC2=NNN=C2C=C1Cl', 'C1=CC=C(C(=C1)C=NNC(=S)N)O': 'C1=CC=C(C(=C1)C=NNC(=S)N)O', 'C1COCCN1CCCS(=O)(=O)O': 'C1COCCN1CCCS(=O)(=O)O', 'C1N2CN3CN1CN(C2)C3': 'C1N2CN3CN1CN(C2)C3', 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1': 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1', 'CC(=O)O': 'CC(=O)O', 'CC(=O)SSC(=O)C': 'CC(=O)SSC(=O)C', 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C': 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C', 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O': 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O', 'CCCCCCCCCCCCCCCCCC(=O)O': 'CCCCCCCCCCCCCCCCCC(=O)O', 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCOS(=O)(=O)O': 'CCCCCCCCCCCCOS(=O)(=O)O', 'CCCCCCCCCCCCc1ccccc1S([O])([O])O': 'CCCCCCCCCCCCc1ccccc1S([O])([O])O', 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O': 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O', 'CCCCOP(=O)(OCCCC)O': 'CCCCOP(=O)(OCCCC)O', 'CCN(C(=S)S)CC': 'CCN(C(=S)S)CC', 'CCOc1ccc2c(c1)nc([nH]2)S': 'CCOc1ccc2c(c1)nc([nH]2)S', 'CCSc1nnc(s1)N': 'CCSc1nnc(s1)N', 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C': 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C', 'CNCC(C1=CC(=CC=C1)O)O': 'CNCC(C1=CC(=CC=C1)O)O', 'COC(=O)CCCC1=CNC2=CC=CC=C21': 'COC(=O)CCCC1=CNC2=CC=CC=C21', 'COC(=O)n1nnc2ccccc12': 'COC(=O)n1nnc2ccccc12', 'COCCOC(=O)OCSc1nc2c(s1)cccc2': 'COCCOC(=O)OCSc1nc2c(s1)cccc2', 'COc1ccc2c(c1)[nH]c(=S)[nH]2': 'COc1ccc2c(c1)[nH]c(=S)[nH]2', 'COc1cccc(c1)c1n[nH]c(=S)[nH]1': 'COc1cccc(c1)c1n[nH]c(=S)[nH]1', 'CS[C]1N[N]C(=N1)N': 'CS[C]1N[N]C(=N1)N', 'CSc1[nH]c2c(n1)cc(c(c2)C)C': 'CSc1[nH]c2c(n1)cc(c(c2)C)C', 'CSc1nnc(s1)N': 'CSc1nnc(s1)N', 'Cc1cc(C)nc(n1)S': 'Cc1cc(C)nc(n1)S', 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O': 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O', 'Cc1ccc2c(c1)nc([nH]2)S': 'Cc1ccc2c(c1)nc([nH]2)S', 'Cc1n[nH]c(=S)s1': 'Cc1n[nH]c(=S)s1', 'Cc1nsc(c1)N': 'Cc1nsc(c1)N', 'ClC([C]1N[N]C=N1)(Cl)Cl': 'ClC([C]1N[N]C=N1)(Cl)Cl', 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl': 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl', 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O': 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O', 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1': 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1', 'Clc1ccc2c(c1)[nH]c(n2)S': 'Clc1ccc2c(c1)[nH]c(n2)S', 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1': 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1', 'Cn1cnnc1S': 'Cn1cnnc1S', 'Cn1nnnc1S': 'Cn1nnnc1S', 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]': 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]', 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O': 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O', 'NCC(=O)O': 'NCC(=O)O', 'NO': 'NO', 'Nc1cc(N)nc(n1)S': 'Nc1cc(N)nc(n1)S', 'Nc1cc(S)nc(n1)N': 'Nc1cc(S)nc(n1)N', 'Nc1ccc2c(c1)sc(=S)[nH]2': 'Nc1ccc2c(c1)sc(=S)[nH]2', 'Nc1ccnc(n1)S': 'Nc1ccnc(n1)S', 'Nc1n[nH]c(=S)s1': 'Nc1n[nH]c(=S)s1', 'Nc1n[nH]c(n1)S': 'Nc1n[nH]c(n1)S', 'Nc1n[nH]cn1': 'Nc1n[nH]cn1', 'Nc1nc([nH]n1)C(=O)O': 'Nc1nc([nH]n1)C(=O)O', 'Nc1ncncc1N': 'Nc1ncncc1N', 'Nn1c(NN)nnc1S': 'Nn1c(NN)nnc1S', 'Nn1c(S)nnc1c1ccccc1': 'Nn1c(S)nnc1c1ccccc1', 'Nn1cnnc1': 'Nn1cnnc1', 'O/N=C(/C(=N/O)/C)\\\\C': 'O/N=C(/C(=N/O)/C)\\\\C', 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1': 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1', 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]': 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]', 'OC(=O)/C=C/c1ccccc1': 'OC(=O)/C=C/c1ccccc1', 'OC(=O)CCCCC(=O)O': 'OC(=O)CCCCC(=O)O', 'OC(=O)CCCCCCCCCCCCCCC(=O)O': 'OC(=O)CCCCCCCCCCCCCCC(=O)O', 'OC(=O)CCS': 'OC(=O)CCS', 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O': 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O', 'OC(=O)CS': 'OC(=O)CS', 'OC(=O)Cn1nnnc1S': 'OC(=O)Cn1nnnc1S', 'OC(=O)c1ccc(=S)[nH]c1': 'OC(=O)c1ccc(=S)[nH]c1', 'OC(=O)c1ccc(cc1)N': 'OC(=O)c1ccc(cc1)N', 'OC(=O)c1ccc(cc1)S': 'OC(=O)c1ccc(cc1)S', 'OC(=O)c1ccc(cc1)c1ccccc1': 'OC(=O)c1ccc(cc1)c1ccccc1', 'OC(=O)c1ccccc1': 'OC(=O)c1ccccc1', 'OC(=O)c1ccccc1O': 'OC(=O)c1ccccc1O', 'OC(=O)c1ccccc1S': 'OC(=O)c1ccccc1S', 'OC(=O)c1ccccn1': 'OC(=O)c1ccccn1', 'OC(=O)c1cccnc1': 'OC(=O)c1cccnc1', 'OC(=O)c1cccnc1S': 'OC(=O)c1cccnc1S', 'OC(=O)c1ccncc1': 'OC(=O)c1ccncc1', 'OC(=O)c1n[nH]c(n1)N': 'OC(=O)c1n[nH]c(n1)N', 'OCC(CO)O': 'OCC(CO)O', 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O', 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O', 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O': 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O', 'O[C@H]1C(=O)OCC1(C)C': 'O[C@H]1C(=O)OCC1(C)C', 'Oc1ccc(cc1)C(=O)O': 'Oc1ccc(cc1)C(=O)O', 'Oc1ccc(cc1)S([O])([O])O': 'Oc1ccc(cc1)S([O])([O])O', 'Oc1cccc2c1nccc2': 'Oc1cccc2c1nccc2', 'Oc1ccccc1c1nnc([nH]1)S': 'Oc1ccccc1c1nnc([nH]1)S', 'On1nnc2c1cccc2': 'On1nnc2c1cccc2', 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C': 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C', 'S=c1[nH]c2c([nH]1)cncn2': 'S=c1[nH]c2c([nH]1)cncn2', 'S=c1[nH]c2c([nH]1)nccn2': 'S=c1[nH]c2c([nH]1)nccn2', 'S=c1[nH]nc([nH]1)c1cccnc1': 'S=c1[nH]nc([nH]1)c1cccnc1', 'S=c1[nH]nc([nH]1)c1ccco1': 'S=c1[nH]nc([nH]1)c1ccco1', 'S=c1[nH]nc([nH]1)c1ccncc1': 'S=c1[nH]nc([nH]1)c1ccncc1', 'S=c1sc2c([nH]1)cccc2': 'S=c1sc2c([nH]1)cccc2', 'SC#N': 'SC#N', 'S[C]1NC2=C[CH]C=NC2=N1': 'S[C]1NC2=C[CH]C=NC2=N1', 'Sc1n[nH]cn1': 'Sc1n[nH]cn1', 'Sc1nc(N)c(c(n1)S)N': 'Sc1nc(N)c(c(n1)S)N', 'Sc1nc(N)c2c(n1)[nH]nc2': 'Sc1nc(N)c2c(n1)[nH]nc2', 'Sc1nc2c([nH]1)cccc2': 'Sc1nc2c([nH]1)cccc2', 'Sc1ncc[nH]1': 'Sc1ncc[nH]1', 'Sc1ncccn1': 'Sc1ncccn1', 'Sc1nnc(s1)S': 'Sc1nnc(s1)S', '[Cl-].[Cl-].[Cl-].[Ce+3]': '[Cl-].[Cl-].[Cl-].[Ce+3]', '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]': '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]', '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]': '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]', '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]': '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]', '[O-]S(=O)[O-].[Na+].[Na+]': '[O-]S(=O)[O-].[Na+].[Na+]', 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]': 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]', 'c1ccc(nc1)c1ccccn1': 'c1ccc(nc1)c1ccccn1', 'c1ccc2c(c1)[nH]nn2': 'c1ccc2c(c1)[nH]nn2', 'c1ncn[nH]1': 'c1ncn[nH]1'}, decorrelate=0.7, encoding=<SubstanceEncoding.RDKIT: 'RDKIT'>)], exp_rep=     Time_h    pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
+       "0      24.0   4.0              0.0010               0.10   \n",
+       "1      24.0   7.0              0.0005               0.05   \n",
+       "2      24.0  10.0              0.0010               0.10   \n",
+       "3      24.0   4.0              0.0010               0.10   \n",
+       "4      24.0   7.0              0.0005               0.05   \n",
+       "..      ...   ...                 ...                ...   \n",
+       "510    24.0   7.0              0.0005               0.05   \n",
+       "511    24.0  10.0              0.0010               0.10   \n",
+       "512   672.0   7.0              0.0010               0.10   \n",
+       "513    24.0   4.0              0.0010               0.10   \n",
+       "514    24.0  10.0              0.0010               0.10   \n",
        "\n",
        "                                    SMILES  \n",
-       "0    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
-       "1    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
-       "2    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
+       "0                     C(=O)(C(=O)[O-])[O-]  \n",
+       "1                     C(=O)(C(=O)[O-])[O-]  \n",
+       "2                     C(=O)(C(=O)[O-])[O-]  \n",
        "3    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
        "4    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
        "..                                     ...  \n",
-       "303                   S=c1sc2c([nH]1)cccc2  \n",
-       "304                   S=c1sc2c([nH]1)cccc2  \n",
-       "305                   S=c1sc2c([nH]1)cccc2  \n",
-       "306                   S=c1sc2c([nH]1)cccc2  \n",
-       "307                   S=c1sc2c([nH]1)cccc2  \n",
+       "510                     c1ccc2c(c1)[nH]nn2  \n",
+       "511                     c1ccc2c(c1)[nH]nn2  \n",
+       "512                     c1ccc2c(c1)[nH]nn2  \n",
+       "513                             c1ncn[nH]1  \n",
+       "514                             c1ncn[nH]1  \n",
        "\n",
-       "[308 rows x 5 columns], metadata=     was_recommended  was_measured  dont_recommend\n",
+       "[515 rows x 5 columns], metadata=     was_recommended  was_measured  dont_recommend\n",
        "0              False         False           False\n",
        "1              False         False           False\n",
        "2              False         False           False\n",
        "3              False         False           False\n",
        "4              False         False           False\n",
        "..               ...           ...             ...\n",
-       "303            False         False           False\n",
-       "304            False         False           False\n",
-       "305            False         False           False\n",
-       "306            False         False           False\n",
-       "307            False         False           False\n",
+       "510            False         False           False\n",
+       "511            False         False           False\n",
+       "512            False         False           False\n",
+       "513            False         False           False\n",
+       "514            False         False           False\n",
        "\n",
-       "[308 rows x 3 columns], empty_encoding=False, constraints=[], comp_rep=     Time_h   pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
-       "0       0.0  2.0        5.000000e-07                  2   \n",
-       "1       0.0  2.0        1.000000e-06                  2   \n",
-       "2       0.0  2.0        5.000000e-06                  2   \n",
-       "3       0.0  2.0        1.000000e-05                  2   \n",
-       "4       0.0  2.0        5.000000e-05                  2   \n",
-       "..      ...  ...                 ...                ...   \n",
-       "303   384.0 -0.6        4.200000e-03                  0   \n",
-       "304   384.0 -0.6        5.300000e-03                  0   \n",
-       "305   384.0 -0.6        6.500000e-03                  0   \n",
-       "306   384.0 -0.6        7.500000e-03                  0   \n",
-       "307   384.0 -0.6        8.500000e-03                  0   \n",
+       "[515 rows x 3 columns], empty_encoding=False, constraints=[], comp_rep=     Time_h    pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
+       "0      24.0   4.0              0.0010               0.10   \n",
+       "1      24.0   7.0              0.0005               0.05   \n",
+       "2      24.0  10.0              0.0010               0.10   \n",
+       "3      24.0   4.0              0.0010               0.10   \n",
+       "4      24.0   7.0              0.0005               0.05   \n",
+       "..      ...   ...                 ...                ...   \n",
+       "510    24.0   7.0              0.0005               0.05   \n",
+       "511    24.0  10.0              0.0010               0.10   \n",
+       "512   672.0   7.0              0.0010               0.10   \n",
+       "513    24.0   4.0              0.0010               0.10   \n",
+       "514    24.0  10.0              0.0010               0.10   \n",
        "\n",
        "     SMILES_RDKIT_MaxAbsEStateIndex  SMILES_RDKIT_MinAbsEStateIndex  \\\n",
-       "0                         10.148889                        1.357824   \n",
-       "1                         10.148889                        1.357824   \n",
-       "2                         10.148889                        1.357824   \n",
+       "0                          8.925926                        2.185185   \n",
+       "1                          8.925926                        2.185185   \n",
+       "2                          8.925926                        2.185185   \n",
        "3                         10.148889                        1.357824   \n",
        "4                         10.148889                        1.357824   \n",
        "..                              ...                             ...   \n",
-       "303                        4.975926                        0.848333   \n",
-       "304                        4.975926                        0.848333   \n",
-       "305                        4.975926                        0.848333   \n",
-       "306                        4.975926                        0.848333   \n",
-       "307                        4.975926                        0.848333   \n",
+       "510                        3.813148                        0.914352   \n",
+       "511                        3.813148                        0.914352   \n",
+       "512                        3.813148                        0.914352   \n",
+       "513                        3.555556                        1.444444   \n",
+       "514                        3.555556                        1.444444   \n",
        "\n",
        "     SMILES_RDKIT_MinEStateIndex  SMILES_RDKIT_qed  SMILES_RDKIT_SPS  \\\n",
-       "0                      -2.974537          0.454904         10.846154   \n",
-       "1                      -2.974537          0.454904         10.846154   \n",
-       "2                      -2.974537          0.454904         10.846154   \n",
+       "0                      -2.185185          0.287408          7.333333   \n",
+       "1                      -2.185185          0.287408          7.333333   \n",
+       "2                      -2.185185          0.287408          7.333333   \n",
        "3                      -2.974537          0.454904         10.846154   \n",
        "4                      -2.974537          0.454904         10.846154   \n",
        "..                           ...               ...               ...   \n",
-       "303                     0.848333          0.596343         10.400000   \n",
-       "304                     0.848333          0.596343         10.400000   \n",
-       "305                     0.848333          0.596343         10.400000   \n",
-       "306                     0.848333          0.596343         10.400000   \n",
-       "307                     0.848333          0.596343         10.400000   \n",
+       "510                     0.914352          0.560736         10.222222   \n",
+       "511                     0.914352          0.560736         10.222222   \n",
+       "512                     0.914352          0.560736         10.222222   \n",
+       "513                     1.444444          0.458207          8.000000   \n",
+       "514                     1.444444          0.458207          8.000000   \n",
        "\n",
-       "     SMILES_RDKIT_MolWt  ...  SMILES_RDKIT_fr_allylic_oxid  \\\n",
-       "0               189.099  ...                             0   \n",
-       "1               189.099  ...                             0   \n",
-       "2               189.099  ...                             0   \n",
-       "3               189.099  ...                             0   \n",
-       "4               189.099  ...                             0   \n",
-       "..                  ...  ...                           ...   \n",
-       "303             167.258  ...                             0   \n",
-       "304             167.258  ...                             0   \n",
-       "305             167.258  ...                             0   \n",
-       "306             167.258  ...                             0   \n",
-       "307             167.258  ...                             0   \n",
+       "     SMILES_RDKIT_MolWt  ...  SMILES_RDKIT_fr_nitro  \\\n",
+       "0                88.018  ...                      0   \n",
+       "1                88.018  ...                      0   \n",
+       "2                88.018  ...                      0   \n",
+       "3               189.099  ...                      0   \n",
+       "4               189.099  ...                      0   \n",
+       "..                  ...  ...                    ...   \n",
+       "510             119.127  ...                      0   \n",
+       "511             119.127  ...                      0   \n",
+       "512             119.127  ...                      0   \n",
+       "513              69.067  ...                      0   \n",
+       "514              69.067  ...                      0   \n",
        "\n",
-       "     SMILES_RDKIT_fr_aryl_methyl  SMILES_RDKIT_fr_bicyclic  \\\n",
-       "0                              0                         0   \n",
-       "1                              0                         0   \n",
-       "2                              0                         0   \n",
-       "3                              0                         0   \n",
-       "4                              0                         0   \n",
-       "..                           ...                       ...   \n",
-       "303                            0                         1   \n",
-       "304                            0                         1   \n",
-       "305                            0                         1   \n",
-       "306                            0                         1   \n",
-       "307                            0                         1   \n",
+       "     SMILES_RDKIT_fr_nitro_arom_nonortho  SMILES_RDKIT_fr_oxime  \\\n",
+       "0                                      0                      0   \n",
+       "1                                      0                      0   \n",
+       "2                                      0                      0   \n",
+       "3                                      0                      0   \n",
+       "4                                      0                      0   \n",
+       "..                                   ...                    ...   \n",
+       "510                                    0                      0   \n",
+       "511                                    0                      0   \n",
+       "512                                    0                      0   \n",
+       "513                                    0                      0   \n",
+       "514                                    0                      0   \n",
        "\n",
-       "     SMILES_RDKIT_fr_ether  SMILES_RDKIT_fr_halogen  \\\n",
-       "0                        0                        0   \n",
-       "1                        0                        0   \n",
-       "2                        0                        0   \n",
-       "3                        0                        0   \n",
-       "4                        0                        0   \n",
-       "..                     ...                      ...   \n",
-       "303                      0                        0   \n",
-       "304                      0                        0   \n",
-       "305                      0                        0   \n",
-       "306                      0                        0   \n",
-       "307                      0                        0   \n",
+       "     SMILES_RDKIT_fr_para_hydroxylation  SMILES_RDKIT_fr_phos_acid  \\\n",
+       "0                                     0                          0   \n",
+       "1                                     0                          0   \n",
+       "2                                     0                          0   \n",
+       "3                                     0                          0   \n",
+       "4                                     0                          0   \n",
+       "..                                  ...                        ...   \n",
+       "510                                   1                          0   \n",
+       "511                                   1                          0   \n",
+       "512                                   1                          0   \n",
+       "513                                   0                          0   \n",
+       "514                                   0                          0   \n",
        "\n",
-       "     SMILES_RDKIT_fr_morpholine  SMILES_RDKIT_fr_oxime  \\\n",
-       "0                             0                      0   \n",
-       "1                             0                      0   \n",
-       "2                             0                      0   \n",
-       "3                             0                      0   \n",
-       "4                             0                      0   \n",
-       "..                          ...                    ...   \n",
-       "303                           0                      0   \n",
-       "304                           0                      0   \n",
-       "305                           0                      0   \n",
-       "306                           0                      0   \n",
-       "307                           0                      0   \n",
+       "     SMILES_RDKIT_fr_pyridine  SMILES_RDKIT_fr_quatN  SMILES_RDKIT_fr_sulfide  \\\n",
+       "0                           0                      0                        0   \n",
+       "1                           0                      0                        0   \n",
+       "2                           0                      0                        0   \n",
+       "3                           0                      0                        0   \n",
+       "4                           0                      0                        0   \n",
+       "..                        ...                    ...                      ...   \n",
+       "510                         0                      0                        0   \n",
+       "511                         0                      0                        0   \n",
+       "512                         0                      0                        0   \n",
+       "513                         0                      0                        0   \n",
+       "514                         0                      0                        0   \n",
        "\n",
-       "     SMILES_RDKIT_fr_priamide  SMILES_RDKIT_fr_pyridine  \\\n",
-       "0                           0                         0   \n",
-       "1                           0                         0   \n",
-       "2                           0                         0   \n",
-       "3                           0                         0   \n",
-       "4                           0                         0   \n",
-       "..                        ...                       ...   \n",
-       "303                         0                         0   \n",
-       "304                         0                         0   \n",
-       "305                         0                         0   \n",
-       "306                         0                         0   \n",
-       "307                         0                         0   \n",
+       "     SMILES_RDKIT_fr_tetrazole  SMILES_RDKIT_fr_thiazole  \n",
+       "0                            0                         0  \n",
+       "1                            0                         0  \n",
+       "2                            0                         0  \n",
+       "3                            0                         0  \n",
+       "4                            0                         0  \n",
+       "..                         ...                       ...  \n",
+       "510                          0                         0  \n",
+       "511                          0                         0  \n",
+       "512                          0                         0  \n",
+       "513                          0                         0  \n",
+       "514                          0                         0  \n",
        "\n",
-       "     SMILES_RDKIT_fr_thiazole  \n",
-       "0                           0  \n",
-       "1                           0  \n",
-       "2                           0  \n",
-       "3                           0  \n",
-       "4                           0  \n",
-       "..                        ...  \n",
-       "303                         1  \n",
-       "304                         1  \n",
-       "305                         1  \n",
-       "306                         1  \n",
-       "307                         1  \n",
-       "\n",
-       "[308 rows x 79 columns]), continuous=SubspaceContinuous(parameters=[], constraints_lin_eq=[], constraints_lin_ineq=[]))"
+       "[515 rows x 94 columns]), continuous=SubspaceContinuous(parameters=[], constraints_lin_eq=[], constraints_lin_ineq=[]))"
       ]
      },
-     "execution_count": 120,
+     "execution_count": 6,
      "metadata": {},
      "output_type": "execute_result"
     }
@@ -568,7 +1066,7 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 121,
+   "execution_count": 8,
    "metadata": {},
    "outputs": [],
    "source": [
@@ -595,7 +1093,7 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 122,
+   "execution_count": 9,
    "metadata": {},
    "outputs": [],
    "source": [
@@ -607,134 +1105,167 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 128,
+   "execution_count": 10,
    "metadata": {},
    "outputs": [
     {
      "name": "stderr",
      "output_type": "stream",
      "text": [
-      "  0%|          | 0/40 [00:00<?, ?it/s]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      "  0%|          | 0/40 [00:00<?, ?it/s]"
+     ]
+    },
+    {
+     "name": "stderr",
+     "output_type": "stream",
+     "text": [
+      "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      "  2%|2         | 1/40 [00:14<09:26, 14.52s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      "  2%|2         | 1/40 [00:20<13:34, 20.89s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      "  5%|5         | 2/40 [00:27<08:35, 13.58s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      "  5%|5         | 2/40 [00:35<11:07, 17.55s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      "  8%|7         | 3/40 [00:40<08:23, 13.61s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      "  8%|7         | 3/40 [00:51<10:29, 17.00s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 10%|#         | 4/40 [00:54<08:10, 13.61s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 10%|#         | 4/40 [01:08<10:14, 17.06s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 12%|#2        | 5/40 [01:07<07:52, 13.51s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 12%|#2        | 5/40 [01:24<09:53, 16.97s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 15%|#5        | 6/40 [01:21<07:42, 13.62s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 15%|#5        | 6/40 [01:40<09:31, 16.80s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 18%|#7        | 7/40 [01:33<07:20, 13.36s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 18%|#7        | 7/40 [01:52<08:52, 16.14s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 20%|##        | 8/40 [01:46<07:05, 13.29s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 20%|##        | 8/40 [02:10<08:41, 16.31s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 22%|##2       | 9/40 [01:59<06:50, 13.25s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 22%|##2       | 9/40 [02:23<08:14, 15.94s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 25%|##5       | 10/40 [02:12<06:36, 13.21s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-08 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-07 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-06 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-05 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-04 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-03 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-08 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-07 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-06 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-05 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-04 to the diagonal\n",
+      "  warnings.warn(\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/linear_operator/utils/cholesky.py:40: NumericalWarning: A not p.d., added jitter of 1.0e-03 to the diagonal\n",
+      "  warnings.warn(\n",
+      " 25%|##5       | 10/40 [02:37<07:53, 15.78s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 28%|##7       | 11/40 [02:20<06:10, 12.79s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 28%|##7       | 11/40 [02:54<07:40, 15.87s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 30%|###       | 12/40 [02:29<05:48, 12.46s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 30%|###       | 12/40 [03:10<07:24, 15.89s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 32%|###2      | 13/40 [02:37<05:27, 12.15s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 32%|###2      | 13/40 [03:26<07:09, 15.91s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 35%|###5      | 14/40 [02:46<05:09, 11.92s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 35%|###5      | 14/40 [03:45<06:58, 16.08s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 38%|###7      | 15/40 [02:55<04:52, 11.70s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 38%|###7      | 15/40 [04:02<06:44, 16.16s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 40%|####      | 16/40 [03:03<04:35, 11.48s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 40%|####      | 16/40 [04:18<06:27, 16.14s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 42%|####2     | 17/40 [03:12<04:19, 11.30s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 42%|####2     | 17/40 [04:33<06:10, 16.11s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 45%|####5     | 18/40 [03:20<04:05, 11.15s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 45%|####5     | 18/40 [04:50<05:55, 16.16s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 48%|####7     | 19/40 [03:29<03:51, 11.04s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 48%|####7     | 19/40 [05:08<05:40, 16.24s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 50%|#####     | 20/40 [03:39<03:39, 10.96s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 50%|#####     | 20/40 [05:23<05:23, 16.15s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 52%|#####2    | 21/40 [03:46<03:24, 10.78s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 52%|#####2    | 21/40 [05:34<05:02, 15.92s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 55%|#####5    | 22/40 [03:56<03:13, 10.76s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 55%|#####5    | 22/40 [05:45<04:42, 15.70s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 57%|#####7    | 23/40 [04:08<03:03, 10.80s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 57%|#####7    | 23/40 [05:57<04:24, 15.53s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 60%|######    | 24/40 [04:17<02:51, 10.74s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 60%|######    | 24/40 [06:06<04:04, 15.25s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 62%|######2   | 25/40 [04:28<02:40, 10.73s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 62%|######2   | 25/40 [06:17<03:46, 15.08s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 65%|######5   | 26/40 [04:37<02:29, 10.67s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 65%|######5   | 26/40 [06:27<03:28, 14.91s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 68%|######7   | 27/40 [04:44<02:17, 10.54s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 68%|######7   | 27/40 [06:38<03:11, 14.75s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 70%|#######   | 28/40 [04:53<02:05, 10.47s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      " 70%|#######   | 28/40 [06:48<02:54, 14.58s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      " 72%|#######2  | 29/40 [05:00<01:53, 10.36s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
+      "/home/vscode/.local/lib/python3.10/site-packages/botorch/optim/fit.py:102: OptimizationWarning: `scipy_minimize` terminated with status 3, displaying original message from `scipy.optimize.minimize`: ABNORMAL_TERMINATION_IN_LNSRCH\n",
+      "  warn(\n",
+      " 72%|#######2  | 29/40 [06:58<02:38, 14.45s/it]/home/vscode/.local/lib/python3.10/site-packages/botorch/models/transforms/outcome.py:304: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  stdvs = Y.std(dim=-2, keepdim=True)\n",
       "/home/vscode/.local/lib/python3.10/site-packages/botorch/models/utils/assorted.py:194: UserWarning: std(): degrees of freedom is <= 0. Correction should be strictly less than the reduction factor (input numel divided by output numel). (Triggered internally at ../aten/src/ATen/native/ReduceOps.cpp:1760.)\n",
       "  Ymean, Ystd = torch.mean(Y, dim=-2), torch.std(Y, dim=-2)\n",
-      "100%|##########| 40/40 [05:14<00:00,  7.87s/it]\n"
+      "100%|##########| 40/40 [07:14<00:00, 10.87s/it]\n"
      ]
     }
    ],
@@ -755,12 +1286,21 @@
   },
   {
    "cell_type": "code",
-   "execution_count": 129,
+   "execution_count": 12,
+   "metadata": {},
+   "outputs": [],
+   "source": [
+    "results.to_excel(f\"./results/{exp_dataset_name}_simulation_{N_MC_ITERATIONS}MC_{N_DOE_ITERATIONS}exp_{BATCH_SIZE}batch.xlsx\")"
+   ]
+  },
+  {
+   "cell_type": "code",
+   "execution_count": 18,
    "metadata": {},
    "outputs": [
     {
      "data": {
-      "image/png": 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",
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",
       "text/plain": [
        "<Figure size 640x480 with 1 Axes>"
       ]
@@ -773,15 +1313,77 @@
     "max_yield = lookup[\"Efficiency\"].max()\n",
     "# plot_results = results[results['Scenario'].isin(['Mordred', 'Morgan', 'RDKIT'])]\n",
     "\n",
+    "# until 10\n",
+    "limit = 10\n",
     "sns.lineplot(\n",
     "    data=results, x=\"Num_Experiments\", y=\"Efficiency_CumBest\", hue=\"Scenario\", marker=\"x\"\n",
     ")\n",
-    "plt.plot([0.5, N_DOE_ITERATIONS+0.5], [max_yield, max_yield], \"--r\")\n",
+    "plt.plot([0.5, limit+0.5], [max_yield, max_yield], \"--r\", alpha=0.4)\n",
+    "plt.legend(loc=\"lower right\")\n",
+    "import matplotlib.pyplot as plt\n",
+    "\n",
+    "plt.xlim(0, limit+1)\n",
+    "plt.savefig(f\"./img/{exp_dataset_name}_simulation_{N_MC_ITERATIONS}MC_{N_DOE_ITERATIONS}exp_{BATCH_SIZE}batch_first10.png\")"
+   ]
+  },
+  {
+   "cell_type": "code",
+   "execution_count": 21,
+   "metadata": {},
+   "outputs": [
+    {
+     "data": {
+      "image/png": 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",
+      "text/plain": [
+       "<Figure size 640x480 with 1 Axes>"
+      ]
+     },
+     "metadata": {},
+     "output_type": "display_data"
+    }
+   ],
+   "source": [
+    "# until 25\n",
+    "limit = 25\n",
+    "\n",
+    "sns.lineplot(\n",
+    "    data=results, x=\"Num_Experiments\", y=\"Efficiency_CumBest\", hue=\"Scenario\", marker=\"x\"\n",
+    ")\n",
+    "plt.plot([0.5, N_DOE_ITERATIONS+0.5], [max_yield, max_yield], \"--r\", alpha=0.4)\n",
     "plt.legend(loc=\"lower right\")\n",
     "import matplotlib.pyplot as plt\n",
     "\n",
     "plt.xlim(0, N_DOE_ITERATIONS+1)\n",
-    "plt.savefig(\"./AA1000_simulation_10MC_50exp_1batch.png\")"
+    "plt.savefig(f\"./img/{exp_dataset_name}_simulation_{N_MC_ITERATIONS}MC_{N_DOE_ITERATIONS}exp_{BATCH_SIZE}batch_first25.png\")"
+   ]
+  },
+  {
+   "cell_type": "code",
+   "execution_count": 19,
+   "metadata": {},
+   "outputs": [
+    {
+     "data": {
+      "image/png": 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",
+      "text/plain": [
+       "<Figure size 640x480 with 1 Axes>"
+      ]
+     },
+     "metadata": {},
+     "output_type": "display_data"
+    }
+   ],
+   "source": [
+    "# all experiments\n",
+    "sns.lineplot(\n",
+    "    data=results, x=\"Num_Experiments\", y=\"Efficiency_CumBest\", hue=\"Scenario\", marker=\"x\"\n",
+    ")\n",
+    "plt.plot([0.5, N_DOE_ITERATIONS+0.5], [max_yield, max_yield], \"--r\", alpha=0.4)\n",
+    "plt.legend(loc=\"lower right\")\n",
+    "import matplotlib.pyplot as plt\n",
+    "\n",
+    "plt.xlim(0, N_DOE_ITERATIONS+1)\n",
+    "plt.savefig(f\"./img/{exp_dataset_name}_simulation_{N_MC_ITERATIONS}MC_{N_DOE_ITERATIONS}exp_{BATCH_SIZE}batch.png\")"
    ]
   },
   {
@@ -974,691 +1576,15 @@
     "results"
    ]
   },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
-   "source": [
-    "# Non - simulation stuff"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 6,
-   "metadata": {},
-   "outputs": [],
-   "source": [
-    "# targets \n",
-    "from baybe.targets import NumericalTarget\n",
-    "from baybe.objective import Objective\n",
-    "\n",
-    "target = NumericalTarget(\n",
-    "    name=\"Efficiency\",\n",
-    "    mode=\"MAX\",\n",
-    ")\n",
-    "objective = Objective(mode=\"SINGLE\", targets=[target])"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 7,
-   "metadata": {},
-   "outputs": [
-    {
-     "data": {
-      "text/plain": [
-       "[NumericalDiscreteParameter(name='Time_h', encoding=None, _values=[0.5, 1.0, 2.0, 3.0, 6.0, 24.0, 48.0, 72.0, 96.0, 120.0, 144.0, 168.0, 192.0, 240.0, 288.0, 336.0, 360.0, 384.0, 432.0, 480.0, 528.0, 576.0, 600.0, 624.0, 672.0], tolerance=0.0),\n",
-       " NumericalDiscreteParameter(name='pH', encoding=None, _values=[0.0, 3.3, 4.0, 4.4, 5.4, 5.5, 5.6, 7.0, 10.0], tolerance=0.0),\n",
-       " NumericalDiscreteParameter(name='Inhib_Concentrat_M', encoding=None, _values=[1e-05, 5e-05, 0.0001, 0.0002, 0.0003, 0.0004, 0.0005, 0.0006, 0.0008, 0.001, 0.0012, 0.0018, 0.0024, 0.003, 0.005, 0.01, 0.011, 0.021, 0.022, 0.031, 0.033, 0.042, 0.044, 0.05, 0.1], tolerance=0.0),\n",
-       " NumericalDiscreteParameter(name='Salt_Concentrat_M', encoding=None, _values=[0.0, 0.01, 0.05, 0.1, 0.5, 0.6], tolerance=0.0),\n",
-       " SubstanceParameter(name='SMILES', data={'COCCOC(=O)OCSc1nc2c(s1)cccc2': 'COCCOC(=O)OCSc1nc2c(s1)cccc2', 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O': 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O', 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O': 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O', 'On1nnc2c1cccc2': 'On1nnc2c1cccc2', 'c1ncn[nH]1': 'c1ncn[nH]1', 'Sc1n[nH]cn1': 'Sc1n[nH]cn1', 'S[C]1NC2=C[CH]C=NC2=N1': 'S[C]1NC2=C[CH]C=NC2=N1', 'S=c1[nH]c2c([nH]1)nccn2': 'S=c1[nH]c2c([nH]1)nccn2', 'Sc1ncc[nH]1': 'Sc1ncc[nH]1', 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1': 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1', 'CCSc1nnc(s1)N': 'CCSc1nnc(s1)N', 'CSc1nnc(s1)N': 'CSc1nnc(s1)N', 'Cc1ccc2c(c1)nc([nH]2)S': 'Cc1ccc2c(c1)nc([nH]2)S', 'OC(=O)CS': 'OC(=O)CS', 'Sc1nc2c([nH]1)cccc2': 'Sc1nc2c([nH]1)cccc2', 'OC(=O)c1ccccc1S': 'OC(=O)c1ccccc1S', 'S=c1sc2c([nH]1)cccc2': 'S=c1sc2c([nH]1)cccc2', 'OC(=O)c1cccnc1S': 'OC(=O)c1cccnc1S', 'Sc1ncccn1': 'Sc1ncccn1', 'c1ccc(nc1)c1ccccn1': 'c1ccc(nc1)c1ccccn1', 'Sc1nnc(s1)S': 'Sc1nnc(s1)S', 'Nc1cc(S)nc(n1)N': 'Nc1cc(S)nc(n1)N', 'Nc1nc([nH]n1)C(=O)O': 'Nc1nc([nH]n1)C(=O)O', 'Nc1n[nH]cn1': 'Nc1n[nH]cn1', 'OC(=O)c1n[nH]c(n1)N': 'OC(=O)c1n[nH]c(n1)N', 'Nc1n[nH]c(n1)S': 'Nc1n[nH]c(n1)S', 'CS[C]1N[N]C(=N1)N': 'CS[C]1N[N]C(=N1)N', 'C1=CC(=CC(=C1)S)C(=O)O': 'C1=CC(=CC(=C1)S)C(=O)O', 'OC(=O)CCS': 'OC(=O)CCS', 'Oc1ccccc1c1nnc([nH]1)S': 'Oc1ccccc1c1nnc([nH]1)S', 'Nn1cnnc1': 'Nn1cnnc1', 'Nc1ccnc(n1)S': 'Nc1ccnc(n1)S', 'Nn1c(NN)nnc1S': 'Nn1c(NN)nnc1S', 'Nn1c(S)nnc1c1ccccc1': 'Nn1c(S)nnc1c1ccccc1', 'Sc1nc(N)c2c(n1)[nH]nc2': 'Sc1nc(N)c2c(n1)[nH]nc2', 'Oc1ccc(cc1)C(=O)O': 'Oc1ccc(cc1)C(=O)O', 'OC(=O)c1ccc(cc1)S': 'OC(=O)c1ccc(cc1)S', 'Cn1cnnc1S': 'Cn1cnnc1S', 'Sc1nc(N)c(c(n1)S)N': 'Sc1nc(N)c(c(n1)S)N', 'Nc1ncncc1N': 'Nc1ncncc1N', 'Nc1cc(N)nc(n1)S': 'Nc1cc(N)nc(n1)S', 'Cc1cc(C)nc(n1)S': 'Cc1cc(C)nc(n1)S', 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1': 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1', 'COc1cccc(c1)c1n[nH]c(=S)[nH]1': 'COc1cccc(c1)c1n[nH]c(=S)[nH]1', 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1': 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1', 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]': 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]', 'S=c1[nH]nc([nH]1)c1ccco1': 'S=c1[nH]nc([nH]1)c1ccco1', 'S=c1[nH]nc([nH]1)c1cccnc1': 'S=c1[nH]nc([nH]1)c1cccnc1', 'S=c1[nH]nc([nH]1)c1ccncc1': 'S=c1[nH]nc([nH]1)c1ccncc1', 'Nc1n[nH]c(=S)s1': 'Nc1n[nH]c(=S)s1', 'Cc1nsc(c1)N': 'Cc1nsc(c1)N', 'Clc1ccc2c(c1)[nH]c(n2)S': 'Clc1ccc2c(c1)[nH]c(n2)S', 'CCOc1ccc2c(c1)nc([nH]2)S': 'CCOc1ccc2c(c1)nc([nH]2)S', 'Cn1nnnc1S': 'Cn1nnnc1S', 'OC(=O)Cn1nnnc1S': 'OC(=O)Cn1nnnc1S', 'COc1ccc2c(c1)[nH]c(=S)[nH]2': 'COc1ccc2c(c1)[nH]c(=S)[nH]2', 'Cc1n[nH]c(=S)s1': 'Cc1n[nH]c(=S)s1', 'ClC([C]1N[N]C=N1)(Cl)Cl': 'ClC([C]1N[N]C=N1)(Cl)Cl', 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl': 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl', 'CSc1[nH]c2c(n1)cc(c(c2)C)C': 'CSc1[nH]c2c(n1)cc(c(c2)C)C', 'Nc1ccc2c(c1)sc(=S)[nH]2': 'Nc1ccc2c(c1)sc(=S)[nH]2', 'OC(=O)c1ccc(=S)[nH]c1': 'OC(=O)c1ccc(=S)[nH]c1', 'Oc1cccc2c1nccc2': 'Oc1cccc2c1nccc2', 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C': 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C', 'S=c1[nH]c2c([nH]1)cncn2': 'S=c1[nH]c2c([nH]1)cncn2', 'CC(=O)O': 'CC(=O)O', 'OC(=O)CCCCC(=O)O': 'OC(=O)CCCCC(=O)O', 'OC(=O)c1ccccc1': 'OC(=O)c1ccccc1', 'c1ccc2c(c1)[nH]nn2': 'c1ccc2c(c1)[nH]nn2', 'OC(=O)c1ccc(cc1)c1ccccc1': 'OC(=O)c1ccc(cc1)c1ccccc1', 'OC(=O)/C=C/c1ccccc1': 'OC(=O)/C=C/c1ccccc1', 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O': 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O', 'O[C@H]1C(=O)OCC1(C)C': 'O[C@H]1C(=O)OCC1(C)C', 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O': 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O', 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O', 'CC(=O)SSC(=O)C': 'CC(=O)SSC(=O)C', 'CCCCOP(=O)(OCCCC)O': 'CCCCOP(=O)(OCCCC)O', 'CCN(C(=S)S)CC': 'CCN(C(=S)S)CC', 'O/N=C(/C(=N/O)/C)\\\\C': 'O/N=C(/C(=N/O)/C)\\\\C', 'CCCCCCCCCCCCc1ccccc1S([O])([O])O': 'CCCCCCCCCCCCc1ccccc1S([O])([O])O', 'CCCCCCCCCCCCOS(=O)(=O)O': 'CCCCCCCCCCCCOS(=O)(=O)O', 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O': 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O', 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1': 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1', 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O', 'OCC(CO)O': 'OCC(CO)O', 'NCC(=O)O': 'NCC(=O)O', 'OC(=O)CCCCCCCCCCCCCCC(=O)O': 'OC(=O)CCCCCCCCCCCCCCC(=O)O', 'C1N2CN3CN1CN(C2)C3': 'C1N2CN3CN1CN(C2)C3', 'NO': 'NO', 'COC(=O)CCCC1=CNC2=CC=CC=C21': 'COC(=O)CCCC1=CNC2=CC=CC=C21', 'OC(=O)c1ccncc1': 'OC(=O)c1ccncc1', 'C1COCCN1CCCS(=O)(=O)O': 'C1COCCN1CCCS(=O)(=O)O', 'OC(=O)c1cccnc1': 'OC(=O)c1cccnc1', 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O': 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O', 'C(=O)(C(=O)[O-])[O-]': 'C(=O)(C(=O)[O-])[O-]', 'OC(=O)c1ccc(cc1)N': 'OC(=O)c1ccc(cc1)N', 'Oc1ccc(cc1)S([O])([O])O': 'Oc1ccc(cc1)S([O])([O])O', 'OC(=O)c1ccccn1': 'OC(=O)c1ccccn1', 'OC(=O)c1ccccc1O': 'OC(=O)c1ccccc1O', 'CCCCCCCCCCCCCCCCCC(=O)O': 'CCCCCCCCCCCCCCCCCC(=O)O', 'SC#N': 'SC#N', 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]': 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]', '[O-]S(=O)[O-].[Na+].[Na+]': '[O-]S(=O)[O-].[Na+].[Na+]', 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C': 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C', 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C': 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C', 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]': 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]', '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]': '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]', '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]': '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]', '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]': '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]', '[Cl-].[Cl-].[Cl-].[Ce+3]': '[Cl-].[Cl-].[Cl-].[Ce+3]', 'CNCC(C1=CC(=CC=C1)O)O': 'CNCC(C1=CC(=CC=C1)O)O', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]', 'C1=CC=C(C(=C1)C=NNC(=S)N)O': 'C1=CC=C(C(=C1)C=NNC(=S)N)O', 'C1=CC(=C(C=C1O)O)C=NNC(=S)N': 'C1=CC(=C(C=C1O)O)C=NNC(=S)N', 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O': 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O', 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O': 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O', 'C1=CC2=NNN=C2C=C1Cl': 'C1=CC2=NNN=C2C=C1Cl', 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]': 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]', 'COC(=O)n1nnc2ccccc12': 'COC(=O)n1nnc2ccccc12'}, decorrelate=0.7, encoding=<SubstanceEncoding.MORDRED: 'MORDRED'>)]"
-      ]
-     },
-     "execution_count": 7,
-     "metadata": {},
-     "output_type": "execute_result"
-    }
-   ],
-   "source": [
-    "# parameters\n",
-    "parameters = [\n",
-    "NumericalDiscreteParameter(\n",
-    "    name=\"Time_h\",\n",
-    "    values=df_active['Time_h'].unique(),\n",
-    "    # tolerance = 0.004, assume certain experimental noise for each parameter measurement?\n",
-    "),\n",
-    "NumericalDiscreteParameter(\n",
-    "    name=\"pH\",\n",
-    "    values=df_active['pH'].unique(),\n",
-    "    # tolerance = 0.004\n",
-    "    ),  \n",
-    "NumericalDiscreteParameter( # Set this as continuous, the values seem quite small?\n",
-    "    name=\"Inhib_Concentrat_M\",\n",
-    "    values= df_active['Inhib_Concentrat_M'].unique(),\n",
-    "    # tolerance = 0.004\n",
-    "    ),\n",
-    "NumericalDiscreteParameter(\n",
-    "    name=\"Salt_Concentrat_M\",\n",
-    "    values=df_active['Salt_Concentrat_M'].unique(),\n",
-    "    # tolerance = 0.004\n",
-    "    ),\n",
-    "SubstanceParameter(\n",
-    "    name=\"SMILES\",\n",
-    "    data=smiles_dict,\n",
-    "    encoding=\"MORDRED\",  # optional\n",
-    "    decorrelate=0.7,  # optional\n",
-    "    )        \n",
-    "    ]\n",
-    "parameters"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 9,
-   "metadata": {},
-   "outputs": [
-    {
-     "data": {
-      "text/plain": [
-       "SearchSpace(discrete=SubspaceDiscrete(parameters=[NumericalDiscreteParameter(name='Time_h', encoding=None, _values=[0.5, 1.0, 2.0, 3.0, 6.0, 24.0, 48.0, 72.0, 96.0, 120.0, 144.0, 168.0, 192.0, 240.0, 288.0, 336.0, 360.0, 384.0, 432.0, 480.0, 528.0, 576.0, 600.0, 624.0, 672.0], tolerance=0.0), NumericalDiscreteParameter(name='pH', encoding=None, _values=[0.0, 3.3, 4.0, 4.4, 5.4, 5.5, 5.6, 7.0, 10.0], tolerance=0.0), NumericalDiscreteParameter(name='Inhib_Concentrat_M', encoding=None, _values=[1e-05, 5e-05, 0.0001, 0.0002, 0.0003, 0.0004, 0.0005, 0.0006, 0.0008, 0.001, 0.0012, 0.0018, 0.0024, 0.003, 0.005, 0.01, 0.011, 0.021, 0.022, 0.031, 0.033, 0.042, 0.044, 0.05, 0.1], tolerance=0.0), NumericalDiscreteParameter(name='Salt_Concentrat_M', encoding=None, _values=[0.0, 0.01, 0.05, 0.1, 0.5, 0.6], tolerance=0.0), SubstanceParameter(name='SMILES', data={'COCCOC(=O)OCSc1nc2c(s1)cccc2': 'COCCOC(=O)OCSc1nc2c(s1)cccc2', 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O': 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O', 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O': 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O', 'On1nnc2c1cccc2': 'On1nnc2c1cccc2', 'c1ncn[nH]1': 'c1ncn[nH]1', 'Sc1n[nH]cn1': 'Sc1n[nH]cn1', 'S[C]1NC2=C[CH]C=NC2=N1': 'S[C]1NC2=C[CH]C=NC2=N1', 'S=c1[nH]c2c([nH]1)nccn2': 'S=c1[nH]c2c([nH]1)nccn2', 'Sc1ncc[nH]1': 'Sc1ncc[nH]1', 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1': 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1', 'CCSc1nnc(s1)N': 'CCSc1nnc(s1)N', 'CSc1nnc(s1)N': 'CSc1nnc(s1)N', 'Cc1ccc2c(c1)nc([nH]2)S': 'Cc1ccc2c(c1)nc([nH]2)S', 'OC(=O)CS': 'OC(=O)CS', 'Sc1nc2c([nH]1)cccc2': 'Sc1nc2c([nH]1)cccc2', 'OC(=O)c1ccccc1S': 'OC(=O)c1ccccc1S', 'S=c1sc2c([nH]1)cccc2': 'S=c1sc2c([nH]1)cccc2', 'OC(=O)c1cccnc1S': 'OC(=O)c1cccnc1S', 'Sc1ncccn1': 'Sc1ncccn1', 'c1ccc(nc1)c1ccccn1': 'c1ccc(nc1)c1ccccn1', 'Sc1nnc(s1)S': 'Sc1nnc(s1)S', 'Nc1cc(S)nc(n1)N': 'Nc1cc(S)nc(n1)N', 'Nc1nc([nH]n1)C(=O)O': 'Nc1nc([nH]n1)C(=O)O', 'Nc1n[nH]cn1': 'Nc1n[nH]cn1', 'OC(=O)c1n[nH]c(n1)N': 'OC(=O)c1n[nH]c(n1)N', 'Nc1n[nH]c(n1)S': 'Nc1n[nH]c(n1)S', 'CS[C]1N[N]C(=N1)N': 'CS[C]1N[N]C(=N1)N', 'C1=CC(=CC(=C1)S)C(=O)O': 'C1=CC(=CC(=C1)S)C(=O)O', 'OC(=O)CCS': 'OC(=O)CCS', 'Oc1ccccc1c1nnc([nH]1)S': 'Oc1ccccc1c1nnc([nH]1)S', 'Nn1cnnc1': 'Nn1cnnc1', 'Nc1ccnc(n1)S': 'Nc1ccnc(n1)S', 'Nn1c(NN)nnc1S': 'Nn1c(NN)nnc1S', 'Nn1c(S)nnc1c1ccccc1': 'Nn1c(S)nnc1c1ccccc1', 'Sc1nc(N)c2c(n1)[nH]nc2': 'Sc1nc(N)c2c(n1)[nH]nc2', 'Oc1ccc(cc1)C(=O)O': 'Oc1ccc(cc1)C(=O)O', 'OC(=O)c1ccc(cc1)S': 'OC(=O)c1ccc(cc1)S', 'Cn1cnnc1S': 'Cn1cnnc1S', 'Sc1nc(N)c(c(n1)S)N': 'Sc1nc(N)c(c(n1)S)N', 'Nc1ncncc1N': 'Nc1ncncc1N', 'Nc1cc(N)nc(n1)S': 'Nc1cc(N)nc(n1)S', 'Cc1cc(C)nc(n1)S': 'Cc1cc(C)nc(n1)S', 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1': 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1', 'COc1cccc(c1)c1n[nH]c(=S)[nH]1': 'COc1cccc(c1)c1n[nH]c(=S)[nH]1', 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1': 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1', 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]': 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]', 'S=c1[nH]nc([nH]1)c1ccco1': 'S=c1[nH]nc([nH]1)c1ccco1', 'S=c1[nH]nc([nH]1)c1cccnc1': 'S=c1[nH]nc([nH]1)c1cccnc1', 'S=c1[nH]nc([nH]1)c1ccncc1': 'S=c1[nH]nc([nH]1)c1ccncc1', 'Nc1n[nH]c(=S)s1': 'Nc1n[nH]c(=S)s1', 'Cc1nsc(c1)N': 'Cc1nsc(c1)N', 'Clc1ccc2c(c1)[nH]c(n2)S': 'Clc1ccc2c(c1)[nH]c(n2)S', 'CCOc1ccc2c(c1)nc([nH]2)S': 'CCOc1ccc2c(c1)nc([nH]2)S', 'Cn1nnnc1S': 'Cn1nnnc1S', 'OC(=O)Cn1nnnc1S': 'OC(=O)Cn1nnnc1S', 'COc1ccc2c(c1)[nH]c(=S)[nH]2': 'COc1ccc2c(c1)[nH]c(=S)[nH]2', 'Cc1n[nH]c(=S)s1': 'Cc1n[nH]c(=S)s1', 'ClC([C]1N[N]C=N1)(Cl)Cl': 'ClC([C]1N[N]C=N1)(Cl)Cl', 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl': 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl', 'CSc1[nH]c2c(n1)cc(c(c2)C)C': 'CSc1[nH]c2c(n1)cc(c(c2)C)C', 'Nc1ccc2c(c1)sc(=S)[nH]2': 'Nc1ccc2c(c1)sc(=S)[nH]2', 'OC(=O)c1ccc(=S)[nH]c1': 'OC(=O)c1ccc(=S)[nH]c1', 'Oc1cccc2c1nccc2': 'Oc1cccc2c1nccc2', 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C': 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C', 'S=c1[nH]c2c([nH]1)cncn2': 'S=c1[nH]c2c([nH]1)cncn2', 'CC(=O)O': 'CC(=O)O', 'OC(=O)CCCCC(=O)O': 'OC(=O)CCCCC(=O)O', 'OC(=O)c1ccccc1': 'OC(=O)c1ccccc1', 'c1ccc2c(c1)[nH]nn2': 'c1ccc2c(c1)[nH]nn2', 'OC(=O)c1ccc(cc1)c1ccccc1': 'OC(=O)c1ccc(cc1)c1ccccc1', 'OC(=O)/C=C/c1ccccc1': 'OC(=O)/C=C/c1ccccc1', 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O': 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O', 'O[C@H]1C(=O)OCC1(C)C': 'O[C@H]1C(=O)OCC1(C)C', 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O': 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O', 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O', 'CC(=O)SSC(=O)C': 'CC(=O)SSC(=O)C', 'CCCCOP(=O)(OCCCC)O': 'CCCCOP(=O)(OCCCC)O', 'CCN(C(=S)S)CC': 'CCN(C(=S)S)CC', 'O/N=C(/C(=N/O)/C)\\\\C': 'O/N=C(/C(=N/O)/C)\\\\C', 'CCCCCCCCCCCCc1ccccc1S([O])([O])O': 'CCCCCCCCCCCCc1ccccc1S([O])([O])O', 'CCCCCCCCCCCCOS(=O)(=O)O': 'CCCCCCCCCCCCOS(=O)(=O)O', 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O': 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O', 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1': 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1', 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O', 'OCC(CO)O': 'OCC(CO)O', 'NCC(=O)O': 'NCC(=O)O', 'OC(=O)CCCCCCCCCCCCCCC(=O)O': 'OC(=O)CCCCCCCCCCCCCCC(=O)O', 'C1N2CN3CN1CN(C2)C3': 'C1N2CN3CN1CN(C2)C3', 'NO': 'NO', 'COC(=O)CCCC1=CNC2=CC=CC=C21': 'COC(=O)CCCC1=CNC2=CC=CC=C21', 'OC(=O)c1ccncc1': 'OC(=O)c1ccncc1', 'C1COCCN1CCCS(=O)(=O)O': 'C1COCCN1CCCS(=O)(=O)O', 'OC(=O)c1cccnc1': 'OC(=O)c1cccnc1', 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O': 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O', 'C(=O)(C(=O)[O-])[O-]': 'C(=O)(C(=O)[O-])[O-]', 'OC(=O)c1ccc(cc1)N': 'OC(=O)c1ccc(cc1)N', 'Oc1ccc(cc1)S([O])([O])O': 'Oc1ccc(cc1)S([O])([O])O', 'OC(=O)c1ccccn1': 'OC(=O)c1ccccn1', 'OC(=O)c1ccccc1O': 'OC(=O)c1ccccc1O', 'CCCCCCCCCCCCCCCCCC(=O)O': 'CCCCCCCCCCCCCCCCCC(=O)O', 'SC#N': 'SC#N', 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]': 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]', '[O-]S(=O)[O-].[Na+].[Na+]': '[O-]S(=O)[O-].[Na+].[Na+]', 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C': 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C', 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C': 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C', 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]': 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]', '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]': '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]', '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]': '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]', '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]': '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]', '[Cl-].[Cl-].[Cl-].[Ce+3]': '[Cl-].[Cl-].[Cl-].[Ce+3]', 'CNCC(C1=CC(=CC=C1)O)O': 'CNCC(C1=CC(=CC=C1)O)O', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]', 'C1=CC=C(C(=C1)C=NNC(=S)N)O': 'C1=CC=C(C(=C1)C=NNC(=S)N)O', 'C1=CC(=C(C=C1O)O)C=NNC(=S)N': 'C1=CC(=C(C=C1O)O)C=NNC(=S)N', 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O': 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O', 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O': 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O', 'C1=CC2=NNN=C2C=C1Cl': 'C1=CC2=NNN=C2C=C1Cl', 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]': 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]', 'COC(=O)n1nnc2ccccc12': 'COC(=O)n1nnc2ccccc12'}, decorrelate=0.7, encoding=<SubstanceEncoding.MORDRED: 'MORDRED'>)], exp_rep=     Time_h    pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
-       "0      24.0   4.0              0.0010               0.10   \n",
-       "1      24.0  10.0              0.0010               0.10   \n",
-       "2      24.0   4.0              0.0010               0.10   \n",
-       "3      24.0  10.0              0.0010               0.10   \n",
-       "4      24.0   4.0              0.0010               0.10   \n",
-       "..      ...   ...                 ...                ...   \n",
-       "606    24.0   7.0              0.0005               0.05   \n",
-       "607    24.0   7.0              0.0005               0.05   \n",
-       "608    24.0   7.0              0.0005               0.05   \n",
-       "609    24.0   7.0              0.0005               0.05   \n",
-       "610    24.0   7.0              0.0005               0.05   \n",
-       "\n",
-       "                                      SMILES  \n",
-       "0               COCCOC(=O)OCSc1nc2c(s1)cccc2  \n",
-       "1               COCCOC(=O)OCSc1nc2c(s1)cccc2  \n",
-       "2              Cc1ccc(c(c1)n1nc2c(n1)cccc2)O  \n",
-       "3              Cc1ccc(c(c1)n1nc2c(n1)cccc2)O  \n",
-       "4    Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O  \n",
-       "..                                       ...  \n",
-       "606                     S=c1sc2c([nH]1)cccc2  \n",
-       "607    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
-       "608    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
-       "609                     C(=O)(C(=O)[O-])[O-]  \n",
-       "610                     C(=O)(C(=O)[O-])[O-]  \n",
-       "\n",
-       "[611 rows x 5 columns], metadata=     was_recommended  was_measured  dont_recommend\n",
-       "0              False         False           False\n",
-       "1              False         False           False\n",
-       "2              False         False           False\n",
-       "3              False         False           False\n",
-       "4              False         False           False\n",
-       "..               ...           ...             ...\n",
-       "606            False         False           False\n",
-       "607            False         False           False\n",
-       "608            False         False           False\n",
-       "609            False         False           False\n",
-       "610            False         False           False\n",
-       "\n",
-       "[611 rows x 3 columns], empty_encoding=False, constraints=[], comp_rep=     Time_h    pH  Inhib_Concentrat_M  Salt_Concentrat_M  SMILES_MORDRED_ABC  \\\n",
-       "0      24.0   4.0              0.0010               0.10           14.211085   \n",
-       "1      24.0  10.0              0.0010               0.10           14.211085   \n",
-       "2      24.0   4.0              0.0010               0.10           13.532488   \n",
-       "3      24.0  10.0              0.0010               0.10           13.532488   \n",
-       "4      24.0   4.0              0.0010               0.10           16.206679   \n",
-       "..      ...   ...                 ...                ...                 ...   \n",
-       "606    24.0   7.0              0.0005               0.05            7.847124   \n",
-       "607    24.0   7.0              0.0005               0.05            9.238929   \n",
-       "608    24.0   7.0              0.0005               0.05            9.238929   \n",
-       "609    24.0   7.0              0.0005               0.05            3.932653   \n",
-       "610    24.0   7.0              0.0005               0.05            3.932653   \n",
-       "\n",
-       "     SMILES_MORDRED_nAcid  SMILES_MORDRED_nBase  SMILES_MORDRED_nAromAtom  \\\n",
-       "0                     0.0                   0.0                       9.0   \n",
-       "1                     0.0                   0.0                       9.0   \n",
-       "2                     0.0                   0.0                      15.0   \n",
-       "3                     0.0                   0.0                      15.0   \n",
-       "4                     0.0                   0.0                      11.0   \n",
-       "..                    ...                   ...                       ...   \n",
-       "606                   0.0                   0.0                       9.0   \n",
-       "607                   3.0                   0.0                       0.0   \n",
-       "608                   3.0                   0.0                       0.0   \n",
-       "609                   2.0                   0.0                       0.0   \n",
-       "610                   2.0                   0.0                       0.0   \n",
-       "\n",
-       "     SMILES_MORDRED_nBridgehead  SMILES_MORDRED_nHetero  ...  \\\n",
-       "0                           0.0                     7.0  ...   \n",
-       "1                           0.0                     7.0  ...   \n",
-       "2                           0.0                     4.0  ...   \n",
-       "3                           0.0                     4.0  ...   \n",
-       "4                           0.0                     5.0  ...   \n",
-       "..                          ...                     ...  ...   \n",
-       "606                         0.0                     3.0  ...   \n",
-       "607                         0.0                     7.0  ...   \n",
-       "608                         0.0                     7.0  ...   \n",
-       "609                         0.0                     4.0  ...   \n",
-       "610                         0.0                     4.0  ...   \n",
-       "\n",
-       "     SMILES_MORDRED_JGI2  SMILES_MORDRED_JGI3  SMILES_MORDRED_JGI4  \\\n",
-       "0               0.053333             0.047348             0.025679   \n",
-       "1               0.053333             0.047348             0.025679   \n",
-       "2               0.074074             0.049167             0.050028   \n",
-       "3               0.074074             0.049167             0.050028   \n",
-       "4               0.104167             0.046456             0.055718   \n",
-       "..                   ...                  ...                  ...   \n",
-       "606             0.059259             0.071970             0.042870   \n",
-       "607             0.117647             0.085938             0.047059   \n",
-       "608             0.117647             0.085938             0.047059   \n",
-       "609             0.148148             0.000000             0.000000   \n",
-       "610             0.148148             0.000000             0.000000   \n",
-       "\n",
-       "     SMILES_MORDRED_JGI5  SMILES_MORDRED_JGI6  SMILES_MORDRED_JGI7  \\\n",
-       "0               0.021778             0.007407             0.014227   \n",
-       "1               0.021778             0.007407             0.014227   \n",
-       "2               0.026569             0.016799             0.012762   \n",
-       "3               0.026569             0.016799             0.012762   \n",
-       "4               0.031875             0.020352             0.014901   \n",
-       "..                   ...                  ...                  ...   \n",
-       "606             0.040000             0.000000             0.000000   \n",
-       "607             0.018519             0.000000             0.000000   \n",
-       "608             0.018519             0.000000             0.000000   \n",
-       "609             0.000000             0.000000             0.000000   \n",
-       "610             0.000000             0.000000             0.000000   \n",
-       "\n",
-       "     SMILES_MORDRED_JGI8  SMILES_MORDRED_JGI9  SMILES_MORDRED_TopoShapeIndex  \\\n",
-       "0               0.008230             0.006734                       0.857143   \n",
-       "1               0.008230             0.006734                       0.857143   \n",
-       "2               0.010204             0.000000                       1.000000   \n",
-       "3               0.010204             0.000000                       1.000000   \n",
-       "4               0.011255             0.006063                       0.833333   \n",
-       "..                   ...                  ...                            ...   \n",
-       "606             0.000000             0.000000                       0.666667   \n",
-       "607             0.000000             0.000000                       1.000000   \n",
-       "608             0.000000             0.000000                       1.000000   \n",
-       "609             0.000000             0.000000                       0.500000   \n",
-       "610             0.000000             0.000000                       0.500000   \n",
-       "\n",
-       "     SMILES_MORDRED_MWC06  \n",
-       "0                7.787797  \n",
-       "1                7.787797  \n",
-       "2                8.042056  \n",
-       "3                8.042056  \n",
-       "4                8.108623  \n",
-       "..                    ...  \n",
-       "606              7.372118  \n",
-       "607              7.377134  \n",
-       "608              7.377134  \n",
-       "609              5.837730  \n",
-       "610              5.837730  \n",
-       "\n",
-       "[611 rows x 147 columns]), continuous=SubspaceContinuous(parameters=[], constraints_lin_eq=[], constraints_lin_ineq=[]))"
-      ]
-     },
-     "execution_count": 9,
-     "metadata": {},
-     "output_type": "execute_result"
-    }
-   ],
-   "source": [
-    "# define search space\n",
-    "df_no_target = lookup.drop('Efficiency', axis=1)\n",
-    "\n",
-    "searchspace = SearchSpace.from_dataframe(df = df_no_target, parameters=parameters)\n",
-    "searchspace"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 10,
-   "metadata": {},
-   "outputs": [],
-   "source": [
-    "# recommenders\n",
-    "from baybe.recommenders import RandomRecommender, SequentialGreedyRecommender\n",
-    "from baybe.surrogates import GaussianProcessSurrogate\n",
-    "\n",
-    "SURROGATE_MODEL = GaussianProcessSurrogate()\n",
-    "ACQ_FUNCTION = \"qEI\" # q-Expected Improvement, only q-fuctions are available for batch_size > 1\n",
-    "\n",
-    "seq_greedy_recommender = SequentialGreedyRecommender(\n",
-    "        surrogate_model=SURROGATE_MODEL,\n",
-    "        acquisition_function_cls=ACQ_FUNCTION,\n",
-    "        hybrid_sampler=\"Farthest\", # find more details in the documentation\n",
-    "        sampling_percentage=0.3, # should be relatively low\n",
-    "        allow_repeated_recommendations=False,\n",
-    "        allow_recommending_already_measured=False,\n",
-    "    )"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 11,
-   "metadata": {},
-   "outputs": [
-    {
-     "name": "stdout",
-     "output_type": "stream",
-     "text": [
-      "\u001b[1mCampaign\u001b[0m\n",
-      "         \n",
-      " \u001b[1mMeta Data\u001b[0m\n",
-      " Batches Done: 0\n",
-      " Fits Done: 0\n",
-      " \n",
-      " \u001b[1mSearch Space\u001b[0m\n",
-      "          \n",
-      "  \u001b[1mSearch Space Type: \u001b[0mDISCRETE\n",
-      "  \n",
-      "  \u001b[1mDiscrete Search Space\u001b[0m\n",
-      "               \n",
-      "   \u001b[1mDiscrete Parameters\u001b[0m\n",
-      "                    Name                        Type  Num_Values                   Encoding\n",
-      "   0              Time_h  NumericalDiscreteParameter          25                       None\n",
-      "   1                  pH  NumericalDiscreteParameter           9                       None\n",
-      "   2  Inhib_Concentrat_M  NumericalDiscreteParameter          25                       None\n",
-      "   3   Salt_Concentrat_M  NumericalDiscreteParameter           6                       None\n",
-      "   4              SMILES          SubstanceParameter         123  SubstanceEncoding.MORDRED\n",
-      "               \n",
-      "   \u001b[1mExperimental Representation\u001b[0m\n",
-      "        Time_h    pH  ...  Salt_Concentrat_M                                 SMILES\n",
-      "   0      24.0   4.0  ...               0.10           COCCOC(=O)OCSc1nc2c(s1)cccc2\n",
-      "   1      24.0  10.0  ...               0.10           COCCOC(=O)OCSc1nc2c(s1)cccc2\n",
-      "   2      24.0   4.0  ...               0.10          Cc1ccc(c(c1)n1nc2c(n1)cccc2)O\n",
-      "   ..      ...   ...  ...                ...                                    ...\n",
-      "   608    24.0   7.0  ...               0.05  C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O\n",
-      "   609    24.0   7.0  ...               0.05                   C(=O)(C(=O)[O-])[O-]\n",
-      "   610    24.0   7.0  ...               0.05                   C(=O)(C(=O)[O-])[O-]\n",
-      "   \n",
-      "   [611 rows x 5 columns]\n",
-      "   \n",
-      "   \u001b[1mMetadata:\u001b[0m\n",
-      "   was_recommended: 0/611\n",
-      "   was_measured: 0/611\n",
-      "   dont_recommend: 0/611\n",
-      "               \n",
-      "   \u001b[1mConstraints\u001b[0m\n",
-      "   Empty DataFrame\n",
-      "   Columns: []\n",
-      "   Index: []\n",
-      "               \n",
-      "   \u001b[1mComputational Representation\u001b[0m\n",
-      "        Time_h    pH  ...  SMILES_MORDRED_TopoShapeIndex  SMILES_MORDRED_MWC06\n",
-      "   0      24.0   4.0  ...                       0.857143              7.787797\n",
-      "   1      24.0  10.0  ...                       0.857143              7.787797\n",
-      "   2      24.0   4.0  ...                       1.000000              8.042056\n",
-      "   ..      ...   ...  ...                            ...                   ...\n",
-      "   608    24.0   7.0  ...                       1.000000              7.377134\n",
-      "   609    24.0   7.0  ...                       0.500000              5.837730\n",
-      "   610    24.0   7.0  ...                       0.500000              5.837730\n",
-      "   \n",
-      "   [611 rows x 147 columns]\n",
-      " \n",
-      " \u001b[1mObjective\u001b[0m\n",
-      "          \n",
-      "  \u001b[1mMode: \u001b[0mSINGLE\n",
-      "          \n",
-      "  \u001b[1mTargets \u001b[0m\n",
-      "                Type        Name Mode  Lower_Bound  Upper_Bound Transformation  \\\n",
-      "  0  NumericalTarget  Efficiency  MAX         -inf          inf           None   \n",
-      "  \n",
-      "     Weight  \n",
-      "  0   100.0  \n",
-      "          \n",
-      "  \u001b[1mCombine Function: \u001b[0mGEOM_MEAN\n",
-      " \n",
-      " TwoPhaseMetaRecommender(allow_repeated_recommendations=None, allow_recommending_already_measured=None, initial_recommender=RandomRecommender(allow_repeated_recommendations=False, allow_recommending_already_measured=True), recommender=SequentialGreedyRecommender(allow_repeated_recommendations=False, allow_recommending_already_measured=False, surrogate_model=GaussianProcessSurrogate(model_params={}, _model=None), acquisition_function_cls='qEI', _acquisition_function=None, hybrid_sampler='Farthest', sampling_percentage=0.3), switch_after=1)\n",
-      " \n"
-     ]
-    },
-    {
-     "name": "stderr",
-     "output_type": "stream",
-     "text": [
-      "/home/vscode/.local/lib/python3.10/site-packages/baybe/strategies/deprecation.py:26: DeprecationWarning: 'TwoPhaseStrategy' is deprecated and will be removed in a future version. Please use 'recommenders.TwoPhaseMetaRecommender' class instead.\n",
-      "  warnings.warn(\n"
-     ]
-    }
-   ],
-   "source": [
-    "# campaign strategy\n",
-    "from baybe.strategies import TwoPhaseStrategy\n",
-    "from baybe import Campaign\n",
-    "\n",
-    "strategy = TwoPhaseStrategy(\n",
-    "    initial_recommender = RandomRecommender(),  # Initial recommender\n",
-    "    # Doesn't matter since I already have training data, BUT CAN BE USED FOR BENCHMARKING\n",
-    "    recommender = seq_greedy_recommender,  # Bayesian model-based optimization\n",
-    "    switch_after=1  # Switch to the model-based recommender after 1 batches = immediately\n",
-    ")\n",
-    "\n",
-    "# setup campaign\n",
-    "campaign = Campaign(searchspace, objective, strategy)\n",
-    "print(campaign)"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 12,
-   "metadata": {},
-   "outputs": [
-    {
-     "name": "stdout",
-     "output_type": "stream",
-     "text": [
-      "\n",
-      "\n",
-      "Recommended experiments: \n",
-      "|     |   Time_h |   pH |   Inhib_Concentrat_M |   Salt_Concentrat_M | SMILES                                                               |\n",
-      "|----:|---------:|-----:|---------------------:|--------------------:|:---------------------------------------------------------------------|\n",
-      "| 484 |    480   |    7 |                0.031 |                0.05 | C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]   |\n",
-      "| 227 |      0.5 |    7 |                0.01  |                0.6  | C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-] |\n",
-      "| 394 |    144   |    7 |                1e-05 |                0.01 | [N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]      |\n"
-     ]
-    }
-   ],
-   "source": [
-    "# recommendations \n",
-    "new_rec = campaign.recommend(batch_size=3) # TEST with different batch sizes for optimal performance\n",
-    "print(\"\\n\\nRecommended experiments: \")\n",
-    "print(new_rec.to_markdown())"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 13,
-   "metadata": {},
-   "outputs": [
-    {
-     "name": "stderr",
-     "output_type": "stream",
-     "text": [
-      "Input row with index 227 has multiple matches with the search space. This could indicate that something went wrong. Matching only first occurrence.\n"
-     ]
-    }
-   ],
-   "source": [
-    "new_rec[\"Efficiency\"] = [79.8, 54.1, 59.4]\n",
-    "campaign.add_measurements(new_rec)"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 14,
-   "metadata": {},
-   "outputs": [
-    {
-     "data": {
-      "text/plain": [
-       "Campaign(searchspace=SearchSpace(discrete=SubspaceDiscrete(parameters=[NumericalDiscreteParameter(name='Time_h', encoding=None, _values=[0.5, 1.0, 2.0, 3.0, 6.0, 24.0, 48.0, 72.0, 96.0, 120.0, 144.0, 168.0, 192.0, 240.0, 288.0, 336.0, 360.0, 384.0, 432.0, 480.0, 528.0, 576.0, 600.0, 624.0, 672.0], tolerance=0.0), NumericalDiscreteParameter(name='pH', encoding=None, _values=[0.0, 3.3, 4.0, 4.4, 5.4, 5.5, 5.6, 7.0, 10.0], tolerance=0.0), NumericalDiscreteParameter(name='Inhib_Concentrat_M', encoding=None, _values=[1e-05, 5e-05, 0.0001, 0.0002, 0.0003, 0.0004, 0.0005, 0.0006, 0.0008, 0.001, 0.0012, 0.0018, 0.0024, 0.003, 0.005, 0.01, 0.011, 0.021, 0.022, 0.031, 0.033, 0.042, 0.044, 0.05, 0.1], tolerance=0.0), NumericalDiscreteParameter(name='Salt_Concentrat_M', encoding=None, _values=[0.0, 0.01, 0.05, 0.1, 0.5, 0.6], tolerance=0.0), SubstanceParameter(name='SMILES', data={'COCCOC(=O)OCSc1nc2c(s1)cccc2': 'COCCOC(=O)OCSc1nc2c(s1)cccc2', 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O': 'Cc1ccc(c(c1)n1nc2c(n1)cccc2)O', 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O': 'Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O', 'On1nnc2c1cccc2': 'On1nnc2c1cccc2', 'c1ncn[nH]1': 'c1ncn[nH]1', 'Sc1n[nH]cn1': 'Sc1n[nH]cn1', 'S[C]1NC2=C[CH]C=NC2=N1': 'S[C]1NC2=C[CH]C=NC2=N1', 'S=c1[nH]c2c([nH]1)nccn2': 'S=c1[nH]c2c([nH]1)nccn2', 'Sc1ncc[nH]1': 'Sc1ncc[nH]1', 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1': 'C=CC(=O)OCCOC(=O)OCCSc1ncccn1', 'CCSc1nnc(s1)N': 'CCSc1nnc(s1)N', 'CSc1nnc(s1)N': 'CSc1nnc(s1)N', 'Cc1ccc2c(c1)nc([nH]2)S': 'Cc1ccc2c(c1)nc([nH]2)S', 'OC(=O)CS': 'OC(=O)CS', 'Sc1nc2c([nH]1)cccc2': 'Sc1nc2c([nH]1)cccc2', 'OC(=O)c1ccccc1S': 'OC(=O)c1ccccc1S', 'S=c1sc2c([nH]1)cccc2': 'S=c1sc2c([nH]1)cccc2', 'OC(=O)c1cccnc1S': 'OC(=O)c1cccnc1S', 'Sc1ncccn1': 'Sc1ncccn1', 'c1ccc(nc1)c1ccccn1': 'c1ccc(nc1)c1ccccn1', 'Sc1nnc(s1)S': 'Sc1nnc(s1)S', 'Nc1cc(S)nc(n1)N': 'Nc1cc(S)nc(n1)N', 'Nc1nc([nH]n1)C(=O)O': 'Nc1nc([nH]n1)C(=O)O', 'Nc1n[nH]cn1': 'Nc1n[nH]cn1', 'OC(=O)c1n[nH]c(n1)N': 'OC(=O)c1n[nH]c(n1)N', 'Nc1n[nH]c(n1)S': 'Nc1n[nH]c(n1)S', 'CS[C]1N[N]C(=N1)N': 'CS[C]1N[N]C(=N1)N', 'C1=CC(=CC(=C1)S)C(=O)O': 'C1=CC(=CC(=C1)S)C(=O)O', 'OC(=O)CCS': 'OC(=O)CCS', 'Oc1ccccc1c1nnc([nH]1)S': 'Oc1ccccc1c1nnc([nH]1)S', 'Nn1cnnc1': 'Nn1cnnc1', 'Nc1ccnc(n1)S': 'Nc1ccnc(n1)S', 'Nn1c(NN)nnc1S': 'Nn1c(NN)nnc1S', 'Nn1c(S)nnc1c1ccccc1': 'Nn1c(S)nnc1c1ccccc1', 'Sc1nc(N)c2c(n1)[nH]nc2': 'Sc1nc(N)c2c(n1)[nH]nc2', 'Oc1ccc(cc1)C(=O)O': 'Oc1ccc(cc1)C(=O)O', 'OC(=O)c1ccc(cc1)S': 'OC(=O)c1ccc(cc1)S', 'Cn1cnnc1S': 'Cn1cnnc1S', 'Sc1nc(N)c(c(n1)S)N': 'Sc1nc(N)c(c(n1)S)N', 'Nc1ncncc1N': 'Nc1ncncc1N', 'Nc1cc(N)nc(n1)S': 'Nc1cc(N)nc(n1)S', 'Cc1cc(C)nc(n1)S': 'Cc1cc(C)nc(n1)S', 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1': 'Clc1cccc(c1)c1n[nH]c(=S)[nH]1', 'COc1cccc(c1)c1n[nH]c(=S)[nH]1': 'COc1cccc(c1)c1n[nH]c(=S)[nH]1', 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1': 'Clc1ccc(cc1Cl)c1n[nH]c(=S)[nH]1', 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]': 'c1cc(ccc1c2[nH]c(nn2)S)[N+](=O)[O-]', 'S=c1[nH]nc([nH]1)c1ccco1': 'S=c1[nH]nc([nH]1)c1ccco1', 'S=c1[nH]nc([nH]1)c1cccnc1': 'S=c1[nH]nc([nH]1)c1cccnc1', 'S=c1[nH]nc([nH]1)c1ccncc1': 'S=c1[nH]nc([nH]1)c1ccncc1', 'Nc1n[nH]c(=S)s1': 'Nc1n[nH]c(=S)s1', 'Cc1nsc(c1)N': 'Cc1nsc(c1)N', 'Clc1ccc2c(c1)[nH]c(n2)S': 'Clc1ccc2c(c1)[nH]c(n2)S', 'CCOc1ccc2c(c1)nc([nH]2)S': 'CCOc1ccc2c(c1)nc([nH]2)S', 'Cn1nnnc1S': 'Cn1nnnc1S', 'OC(=O)Cn1nnnc1S': 'OC(=O)Cn1nnnc1S', 'COc1ccc2c(c1)[nH]c(=S)[nH]2': 'COc1ccc2c(c1)[nH]c(=S)[nH]2', 'Cc1n[nH]c(=S)s1': 'Cc1n[nH]c(=S)s1', 'ClC([C]1N[N]C=N1)(Cl)Cl': 'ClC([C]1N[N]C=N1)(Cl)Cl', 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl': 'Clc1cc2[nH]c(=S)[nH]c2cc1Cl', 'CSc1[nH]c2c(n1)cc(c(c2)C)C': 'CSc1[nH]c2c(n1)cc(c(c2)C)C', 'Nc1ccc2c(c1)sc(=S)[nH]2': 'Nc1ccc2c(c1)sc(=S)[nH]2', 'OC(=O)c1ccc(=S)[nH]c1': 'OC(=O)c1ccc(=S)[nH]c1', 'Oc1cccc2c1nccc2': 'Oc1cccc2c1nccc2', 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C': 'S=c1[nH]c2c([nH]1)c(=O)n(cn2)C', 'S=c1[nH]c2c([nH]1)cncn2': 'S=c1[nH]c2c([nH]1)cncn2', 'CC(=O)O': 'CC(=O)O', 'OC(=O)CCCCC(=O)O': 'OC(=O)CCCCC(=O)O', 'OC(=O)c1ccccc1': 'OC(=O)c1ccccc1', 'c1ccc2c(c1)[nH]nn2': 'c1ccc2c(c1)[nH]nn2', 'OC(=O)c1ccc(cc1)c1ccccc1': 'OC(=O)c1ccc(cc1)c1ccccc1', 'OC(=O)/C=C/c1ccccc1': 'OC(=O)/C=C/c1ccccc1', 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O': 'C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O', 'O[C@H]1C(=O)OCC1(C)C': 'O[C@H]1C(=O)OCC1(C)C', 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O': 'OC[C@H]1OC(O)[C@H](O)[C@@H](O)[C@@H]1O', 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@@H](CO)O)O)O)O', 'CC(=O)SSC(=O)C': 'CC(=O)SSC(=O)C', 'CCCCOP(=O)(OCCCC)O': 'CCCCOP(=O)(OCCCC)O', 'CCN(C(=S)S)CC': 'CCN(C(=S)S)CC', 'O/N=C(/C(=N/O)/C)\\\\C': 'O/N=C(/C(=N/O)/C)\\\\C', 'CCCCCCCCCCCCc1ccccc1S([O])([O])O': 'CCCCCCCCCCCCc1ccccc1S([O])([O])O', 'CCCCCCCCCCCCOS(=O)(=O)O': 'CCCCCCCCCCCCOS(=O)(=O)O', 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O': 'OC(=O)CN(CC(=O)O)CCN(CC(=O)O)CC(=O)O', 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1': 'O/N=C(\\\\C(=N/O)\\\\c1ccco1)/c1ccco1', 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O': 'OC[C@H]([C@H]([C@@H]([C@H](C(=O)O)O)O)O)O', 'OCC(CO)O': 'OCC(CO)O', 'NCC(=O)O': 'NCC(=O)O', 'OC(=O)CCCCCCCCCCCCCCC(=O)O': 'OC(=O)CCCCCCCCCCCCCCC(=O)O', 'C1N2CN3CN1CN(C2)C3': 'C1N2CN3CN1CN(C2)C3', 'NO': 'NO', 'COC(=O)CCCC1=CNC2=CC=CC=C21': 'COC(=O)CCCC1=CNC2=CC=CC=C21', 'OC(=O)c1ccncc1': 'OC(=O)c1ccncc1', 'C1COCCN1CCCS(=O)(=O)O': 'C1COCCN1CCCS(=O)(=O)O', 'OC(=O)c1cccnc1': 'OC(=O)c1cccnc1', 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O': 'CCCCCCCC/C=C\\\\CCCCCCCC(=O)O', 'C(=O)(C(=O)[O-])[O-]': 'C(=O)(C(=O)[O-])[O-]', 'OC(=O)c1ccc(cc1)N': 'OC(=O)c1ccc(cc1)N', 'Oc1ccc(cc1)S([O])([O])O': 'Oc1ccc(cc1)S([O])([O])O', 'OC(=O)c1ccccn1': 'OC(=O)c1ccccn1', 'OC(=O)c1ccccc1O': 'OC(=O)c1ccccc1O', 'CCCCCCCCCCCCCCCCCC(=O)O': 'CCCCCCCCCCCCCCCCCC(=O)O', 'SC#N': 'SC#N', 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]': 'C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O)O)C(=O)O)[N+](=O)[O-]', '[O-]S(=O)[O-].[Na+].[Na+]': '[O-]S(=O)[O-].[Na+].[Na+]', 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]': 'CCCCCCCCCCCCCCN(CC(=O)O[Na])CC(=O)O[Na]', 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C': 'CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C', 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C': 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C', 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]': 'N.N.[N+](=O)(O)[O-].[N+](=O)(O)[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].O.O.O.O.[Ce+3]', '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]': '[NH4+].[NH4+].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+4]', '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]': '[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[Ce+3]', '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]': '[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[O-]S(=O)(=O)[O-].[Ce+3].[Ce+3]', '[Cl-].[Cl-].[Cl-].[Ce+3]': '[Cl-].[Cl-].[Cl-].[Ce+3]', 'CNCC(C1=CC(=CC=C1)O)O': 'CNCC(C1=CC(=CC=C1)O)O', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Fe+2]', 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]': 'C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[O-])O)O)O)O)O.[Zn+2]', 'C1=CC=C(C(=C1)C=NNC(=S)N)O': 'C1=CC=C(C(=C1)C=NNC(=S)N)O', 'C1=CC(=C(C=C1O)O)C=NNC(=S)N': 'C1=CC(=C(C=C1O)O)C=NNC(=S)N', 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O': 'NC(=S)NN=CC1=C(C(=C(C=C1)O)O)O', 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O': 'CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O', 'C1=CC2=NNN=C2C=C1Cl': 'C1=CC2=NNN=C2C=C1Cl', 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]': 'O=C([O-])C(O)C(O)C(O)C(O)CO.[Na+]', 'COC(=O)n1nnc2ccccc12': 'COC(=O)n1nnc2ccccc12'}, decorrelate=0.7, encoding=<SubstanceEncoding.MORDRED: 'MORDRED'>)], exp_rep=     Time_h    pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
-       "0      24.0   4.0              0.0010               0.10   \n",
-       "1      24.0  10.0              0.0010               0.10   \n",
-       "2      24.0   4.0              0.0010               0.10   \n",
-       "3      24.0  10.0              0.0010               0.10   \n",
-       "4      24.0   4.0              0.0010               0.10   \n",
-       "..      ...   ...                 ...                ...   \n",
-       "606    24.0   7.0              0.0005               0.05   \n",
-       "607    24.0   7.0              0.0005               0.05   \n",
-       "608    24.0   7.0              0.0005               0.05   \n",
-       "609    24.0   7.0              0.0005               0.05   \n",
-       "610    24.0   7.0              0.0005               0.05   \n",
-       "\n",
-       "                                      SMILES  \n",
-       "0               COCCOC(=O)OCSc1nc2c(s1)cccc2  \n",
-       "1               COCCOC(=O)OCSc1nc2c(s1)cccc2  \n",
-       "2              Cc1ccc(c(c1)n1nc2c(n1)cccc2)O  \n",
-       "3              Cc1ccc(c(c1)n1nc2c(n1)cccc2)O  \n",
-       "4    Clc1ccc(cc1)CC[C@](C(C)(C)C)(Cn1cncn1)O  \n",
-       "..                                       ...  \n",
-       "606                     S=c1sc2c([nH]1)cccc2  \n",
-       "607    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
-       "608    C(C(=O)[O-])C(CC(=O)[O-])(C(=O)[O-])O  \n",
-       "609                     C(=O)(C(=O)[O-])[O-]  \n",
-       "610                     C(=O)(C(=O)[O-])[O-]  \n",
-       "\n",
-       "[611 rows x 5 columns], metadata=     was_recommended  was_measured  dont_recommend\n",
-       "0              False         False           False\n",
-       "1              False         False           False\n",
-       "2              False         False           False\n",
-       "3              False         False           False\n",
-       "4              False         False           False\n",
-       "..               ...           ...             ...\n",
-       "606            False         False           False\n",
-       "607            False         False           False\n",
-       "608            False         False           False\n",
-       "609            False         False           False\n",
-       "610            False         False           False\n",
-       "\n",
-       "[611 rows x 3 columns], empty_encoding=False, constraints=[], comp_rep=     Time_h    pH  Inhib_Concentrat_M  Salt_Concentrat_M  SMILES_MORDRED_ABC  \\\n",
-       "0      24.0   4.0              0.0010               0.10           14.211085   \n",
-       "1      24.0  10.0              0.0010               0.10           14.211085   \n",
-       "2      24.0   4.0              0.0010               0.10           13.532488   \n",
-       "3      24.0  10.0              0.0010               0.10           13.532488   \n",
-       "4      24.0   4.0              0.0010               0.10           16.206679   \n",
-       "..      ...   ...                 ...                ...                 ...   \n",
-       "606    24.0   7.0              0.0005               0.05            7.847124   \n",
-       "607    24.0   7.0              0.0005               0.05            9.238929   \n",
-       "608    24.0   7.0              0.0005               0.05            9.238929   \n",
-       "609    24.0   7.0              0.0005               0.05            3.932653   \n",
-       "610    24.0   7.0              0.0005               0.05            3.932653   \n",
-       "\n",
-       "     SMILES_MORDRED_nAcid  SMILES_MORDRED_nBase  SMILES_MORDRED_nAromAtom  \\\n",
-       "0                     0.0                   0.0                       9.0   \n",
-       "1                     0.0                   0.0                       9.0   \n",
-       "2                     0.0                   0.0                      15.0   \n",
-       "3                     0.0                   0.0                      15.0   \n",
-       "4                     0.0                   0.0                      11.0   \n",
-       "..                    ...                   ...                       ...   \n",
-       "606                   0.0                   0.0                       9.0   \n",
-       "607                   3.0                   0.0                       0.0   \n",
-       "608                   3.0                   0.0                       0.0   \n",
-       "609                   2.0                   0.0                       0.0   \n",
-       "610                   2.0                   0.0                       0.0   \n",
-       "\n",
-       "     SMILES_MORDRED_nBridgehead  SMILES_MORDRED_nHetero  ...  \\\n",
-       "0                           0.0                     7.0  ...   \n",
-       "1                           0.0                     7.0  ...   \n",
-       "2                           0.0                     4.0  ...   \n",
-       "3                           0.0                     4.0  ...   \n",
-       "4                           0.0                     5.0  ...   \n",
-       "..                          ...                     ...  ...   \n",
-       "606                         0.0                     3.0  ...   \n",
-       "607                         0.0                     7.0  ...   \n",
-       "608                         0.0                     7.0  ...   \n",
-       "609                         0.0                     4.0  ...   \n",
-       "610                         0.0                     4.0  ...   \n",
-       "\n",
-       "     SMILES_MORDRED_JGI2  SMILES_MORDRED_JGI3  SMILES_MORDRED_JGI4  \\\n",
-       "0               0.053333             0.047348             0.025679   \n",
-       "1               0.053333             0.047348             0.025679   \n",
-       "2               0.074074             0.049167             0.050028   \n",
-       "3               0.074074             0.049167             0.050028   \n",
-       "4               0.104167             0.046456             0.055718   \n",
-       "..                   ...                  ...                  ...   \n",
-       "606             0.059259             0.071970             0.042870   \n",
-       "607             0.117647             0.085938             0.047059   \n",
-       "608             0.117647             0.085938             0.047059   \n",
-       "609             0.148148             0.000000             0.000000   \n",
-       "610             0.148148             0.000000             0.000000   \n",
-       "\n",
-       "     SMILES_MORDRED_JGI5  SMILES_MORDRED_JGI6  SMILES_MORDRED_JGI7  \\\n",
-       "0               0.021778             0.007407             0.014227   \n",
-       "1               0.021778             0.007407             0.014227   \n",
-       "2               0.026569             0.016799             0.012762   \n",
-       "3               0.026569             0.016799             0.012762   \n",
-       "4               0.031875             0.020352             0.014901   \n",
-       "..                   ...                  ...                  ...   \n",
-       "606             0.040000             0.000000             0.000000   \n",
-       "607             0.018519             0.000000             0.000000   \n",
-       "608             0.018519             0.000000             0.000000   \n",
-       "609             0.000000             0.000000             0.000000   \n",
-       "610             0.000000             0.000000             0.000000   \n",
-       "\n",
-       "     SMILES_MORDRED_JGI8  SMILES_MORDRED_JGI9  SMILES_MORDRED_TopoShapeIndex  \\\n",
-       "0               0.008230             0.006734                       0.857143   \n",
-       "1               0.008230             0.006734                       0.857143   \n",
-       "2               0.010204             0.000000                       1.000000   \n",
-       "3               0.010204             0.000000                       1.000000   \n",
-       "4               0.011255             0.006063                       0.833333   \n",
-       "..                   ...                  ...                            ...   \n",
-       "606             0.000000             0.000000                       0.666667   \n",
-       "607             0.000000             0.000000                       1.000000   \n",
-       "608             0.000000             0.000000                       1.000000   \n",
-       "609             0.000000             0.000000                       0.500000   \n",
-       "610             0.000000             0.000000                       0.500000   \n",
-       "\n",
-       "     SMILES_MORDRED_MWC06  \n",
-       "0                7.787797  \n",
-       "1                7.787797  \n",
-       "2                8.042056  \n",
-       "3                8.042056  \n",
-       "4                8.108623  \n",
-       "..                    ...  \n",
-       "606              7.372118  \n",
-       "607              7.377134  \n",
-       "608              7.377134  \n",
-       "609              5.837730  \n",
-       "610              5.837730  \n",
-       "\n",
-       "[611 rows x 147 columns]), continuous=SubspaceContinuous(parameters=[], constraints_lin_eq=[], constraints_lin_ineq=[])), objective=Objective(mode='SINGLE', targets=[NumericalTarget(name='Efficiency', mode=<TargetMode.MAX: 'MAX'>, bounds=Interval(lower=-inf, upper=inf), transformation=None)], weights=[100.0], combine_func='GEOM_MEAN'), recommender=TwoPhaseMetaRecommender(allow_repeated_recommendations=None, allow_recommending_already_measured=None, initial_recommender=RandomRecommender(allow_repeated_recommendations=False, allow_recommending_already_measured=True), recommender=SequentialGreedyRecommender(allow_repeated_recommendations=False, allow_recommending_already_measured=False, surrogate_model=GaussianProcessSurrogate(model_params={}, _model=None), acquisition_function_cls='qEI', _acquisition_function=None, hybrid_sampler='Farthest', sampling_percentage=0.3), switch_after=1), n_batches_done=1, n_fits_done=0, _measurements_exp=   Time_h   pH  Inhib_Concentrat_M  Salt_Concentrat_M  \\\n",
-       "0   480.0  7.0             0.03100               0.05   \n",
-       "1     0.5  7.0             0.01000               0.60   \n",
-       "2   144.0  7.0             0.00001               0.01   \n",
-       "\n",
-       "                                              SMILES  Efficiency  BatchNr  \\\n",
-       "0  C(C(C(C(C(C(=O)[O-])O)O)O)O)O.C(C(C(C(C(C(=O)[...        79.8        1   \n",
-       "1  C1=CC(=C(C=C1SSC2=CC(=C(C=C2)[N+](=O)[O-])C(=O...        54.1        1   \n",
-       "2  [N+](=O)([O-])[O-].[N+](=O)([O-])[O-].[N+](=O)...        59.4        1   \n",
-       "\n",
-       "   FitNr  \n",
-       "0    NaN  \n",
-       "1    NaN  \n",
-       "2    NaN  , _cached_recommendation=Empty DataFrame\n",
-       "Columns: []\n",
-       "Index: [], numerical_measurements_must_be_within_tolerance=None, strategy=None)"
-      ]
-     },
-     "execution_count": 14,
-     "metadata": {},
-     "output_type": "execute_result"
-    }
-   ],
-   "source": [
-    "campaign"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": 15,
-   "metadata": {},
-   "outputs": [
-    {
-     "name": "stdout",
-     "output_type": "stream",
-     "text": [
-      "\n",
-      "\n",
-      "Recommended experiments: \n",
-      "|   index |   Time_h |   pH |   Inhib_Concentrat_M |   Salt_Concentrat_M | SMILES                                                 |\n",
-      "|--------:|---------:|-----:|---------------------:|--------------------:|:-------------------------------------------------------|\n",
-      "|     194 |       24 |   10 |               0.001  |                 0.1 | C1N2CN3CN1CN(C2)C3                                     |\n",
-      "|     297 |       24 |    0 |               0.0004 |                 0   | CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C  |\n",
-      "|     300 |       24 |    0 |               0.0004 |                 0   | CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C  |\n",
-      "|     303 |       24 |    0 |               0.0004 |                 0   | CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C  |\n",
-      "|     306 |       24 |    0 |               0.0004 |                 0   | CC1(C(N2C(S1)C(C2=O)NC(=O)C(C3=CC=C(C=C3)O)N)C(=O)O)C  |\n",
-      "|     586 |        3 |    0 |               0.0008 |                 0   | CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O |\n",
-      "|     591 |        3 |    0 |               0.0008 |                 0   | CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O |\n",
-      "|     596 |        3 |    0 |               0.0008 |                 0   | CCCCN(CCCC)C1=NC(=NC(=N1)NC(CCSC)C(=O)O)NC(CCSC)C(=O)O |\n"
-     ]
-    }
-   ],
-   "source": [
-    "second_rec = campaign.recommend(batch_size=3) # TEST with different batch sizes for optimal performance\n",
-    "print(\"\\n\\nRecommended experiments: \")\n",
-    "print(second_rec.to_markdown())"
-   ]
-  },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
-   "source": [
-    "# Data Analysis"
-   ]
-  },
   {
    "cell_type": "code",
    "execution_count": null,
    "metadata": {},
    "outputs": [],
-   "source": []
-  },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
    "source": [
-    "# Bayesian Optimization"
+    "results.to_excel(f\"./results/{exp_dataset_name}_simulation_{N_MC_ITERATIONS}MC_{N_DOE_ITERATIONS}exp_{BATCH_SIZE}batch.xlsx\")\n"
    ]
   },
-  {
-   "cell_type": "code",
-   "execution_count": null,
-   "metadata": {},
-   "outputs": [],
-   "source": []
-  },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
-   "source": [
-    "## Search Space"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": null,
-   "metadata": {},
-   "outputs": [],
-   "source": []
-  },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
-   "source": [
-    "## Objective"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": null,
-   "metadata": {},
-   "outputs": [],
-   "source": []
-  },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
-   "source": [
-    "## Recommender"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": null,
-   "metadata": {},
-   "outputs": [],
-   "source": []
-  },
-  {
-   "cell_type": "markdown",
-   "metadata": {},
-   "source": [
-    "# Benchmarking"
-   ]
-  },
-  {
-   "cell_type": "code",
-   "execution_count": null,
-   "metadata": {},
-   "outputs": [],
-   "source": []
-  },
   {
    "cell_type": "markdown",
    "metadata": {},
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