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+{
+ "cells": [
+ {
+ "cell_type": "markdown",
+ "id": "73878580-3986-4fc3-81b6-f598e0783b4f",
+ "metadata": {},
+ "source": [
+ "# Demo project - Wine quality prediction"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "53536e98-387e-4457-9d03-5a1d435837a6",
+ "metadata": {},
+ "source": [
+ "## Contents:\n",
+ "* [Import packages](#first-bullet)\n",
+ "* [Load Data](#second-bullet)\n",
+ "* [Exploratory data analysis](#third-bullet)\n",
+ "* [Prepare dataset for training model](#forth-bullet)\n",
+ "* [Build a baseline model](#fifth-bullet)\n",
+ "* [Experiment with a new model](#sixth-bullet)\n",
+ "* [Predict](#seventh-bullet)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "ff902f5d-7bc1-49c9-8994-d4c3e1cff7e8",
+ "metadata": {},
+ "source": [
+ "## Import packages "
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "d73dd05b-5b58-4587-a1df-02a9c96d1996",
+ "metadata": {},
+ "source": [
+ "We will need to install and import packages as we develop our notebook. We've created a couple of starter cells for you but you will need to add more as you work through the notebook."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "e3744f2b-4d07-4f10-84f0-1daa05cb8573",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "!pip install s3fs\n",
+ "# Install more modules that you need here\n",
+ "!pip install seaborn"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "fa3a0921-36d0-4b26-8378-cd5adab57fb8",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "import pandas\n",
+ "# Import more modules and classes that you need here - REMEMBER TO RERUN THE CELL AFTER MODIFYING!\n",
+ "import os\n",
+ "import seaborn"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "c5ac7837-ae31-4b73-9fd0-e8d8dddbafb6",
+ "metadata": {
+ "tags": []
+ },
+ "source": [
+ "## Load Data "
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "7e0d066b-1b2f-47ac-a9a3-f01d62f22969",
+ "metadata": {},
+ "source": [
+ "You have access to a Minio-based S3 storage where your datasets are available, and where you will eventually push models. This storage is defined using a 'Data Connection' in your Data Science Project. You can access this data connection using environment variables. Run the following shell block to determine the environment variable names:"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "780f041d-f811-4927-b039-13eed4dd151e",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "!env | grep AWS"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "edbe5e0f-9470-4228-88be-43fb588ede9d",
+ "metadata": {},
+ "source": [
+ "You will need to assign these to Python variables to be able to use them in code blocks. We've started you off with some code below, but you'll also need variables set for the endpoint and bucket. Remember to import modules as needed in the import block at the top of the Notebook and re-run the cell below again after importing any modules."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "f2aa0f94-5b37-4873-9467-44e6703af9c8",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "AWS_ACCESS_KEY_ID = os.environ['AWS_ACCESS_KEY_ID']\n",
+ "AWS_SECRET_ACCESS_KEY = os.environ['AWS_SECRET_ACCESS_KEY']\n",
+ "# Add variable assignments for AWS_S3_ENDPOINT and AWS_S3_Bucket below.\n",
+ "AWS_S3_ENDPOINT = os.environ['AWS_S3_ENDPOINT']\n",
+ "AWS_S3_BUCKET = os.environ['AWS_S3_BUCKET']\n"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "d0fdc153-bb03-4e42-8df2-01de01b4f47d",
+ "metadata": {},
+ "source": [
+ "Check that your variables have been correctly set:"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "2dfbd5d1-2f81-4432-be43-fc6101d97ea3",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "print(\"AWS_ACCESS_KEY is \" + AWS_ACCESS_KEY_ID)\n",
+ "print(\"AWS_SECRET_ACCESS_KEY is \" + AWS_SECRET_ACCESS_KEY)\n",
+ "print(\"AWS_S3_ENDPOINT is \" + AWS_S3_ENDPOINT)\n",
+ "print(\"AWS_S3_BUCKET is \" + AWS_S3_BUCKET)\n"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "6e94b018-a5c8-4814-8619-0eece4e5d246",
+ "metadata": {},
+ "source": [
+ "## Exploratory data analysis \n",
+ "Have a look in the Minio UI and you will see that you have two datafiles in your bucket, called winequality-red.csv and winequality-white.csv. Let's set up some code to pull these from the storage into memory so that we can start some statistical exploration and visualisation. We will use the Pandas module to do this."
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "0da01133-3435-48e2-b67e-184d25a3270f",
+ "metadata": {},
+ "source": [
+ "First we define a function, read_data() which uses a pandas method to read CSVs directly from S3 storage. Note how we pass our S3 credentials to the method. Because this is a function definition it won't actually do anything when you execute the code cell. "
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "3131849f-2412-4468-93b2-b21e73f91aa7",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def read_data(datasrc):\n",
+ " data = pandas.read_csv(\n",
+ " \"s3://\" + AWS_S3_BUCKET + \"/\" + datasrc, sep=';',\n",
+ " storage_options={\n",
+ " \"key\": AWS_ACCESS_KEY_ID,\n",
+ " \"secret\": AWS_SECRET_ACCESS_KEY,\n",
+ " \"endpoint_url\": AWS_S3_ENDPOINT,\n",
+ " }\n",
+ " )\n",
+ " return data"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "d96f7e23-18f1-4749-987c-1b0a1ee1f84e",
+ "metadata": {},
+ "source": [
+ "Let's try reading our two CSV files into memory now."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b0ab7588-f839-4325-a4cb-22486498884d",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "white_wine = read_data('winequality-white.csv')\n",
+ "red_wine = read_data('winequality-red.csv')"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "46ce3744-1bcd-4571-9613-d1b9a0ba024a",
+ "metadata": {},
+ "source": [
+ "Let's have a look at our white wine data:"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "00ee462f-ff94-44ba-b68a-53d2211e8939",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "white_wine.head(5)\n"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "7dac8273-016a-4771-9026-0b8b77f44bf7",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "# add a command in this cell to inspect our red wine data\n",
+ "red_wine.head(5)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "9197769d-d945-491a-abdc-3939a8b3a3a5",
+ "metadata": {},
+ "source": [
+ "We would like to run analysis on both our red and white wine datasets simultaneously, so it makes sense to merge these two datasets into one. But how will we then tell the difference between our red and white wines? Well, we simply add another feature - the feature is calles 'is_red' and is essentially a Boolean indicating whether the wine is red, or 'not red' i.e. white.\n",
+ "\n",
+ "(Extra credit for anyone who can point out what might be problematic about this approach!)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "bbeed573-c132-4e8b-b1bb-e261812faa71",
+ "metadata": {},
+ "source": [
+ "Let's define a function to definte our additional feature in each dataset, and then concatenate them."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6af49215-b766-4ca4-a140-6e21f8d7ecb7",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def transformdata(red_wine,white_wine):\n",
+ " red_wine['is_red'] = 1\n",
+ " white_wine['is_red'] = 0\n",
+ " data = pandas.concat([red_wine, white_wine], axis=0)\n",
+ " # lets get rid of those annoying spaces in our column names\n",
+ " data.rename(columns=lambda x: x.replace(' ', '_'), inplace=True)\n",
+ " return data"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "27a5d750-0307-43ca-abf5-1562fc8191f2",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "Now, invoke your method and show the first 5 lines of the merged data below:"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "fa3e4777-76c2-4687-a8da-6e10c18fe536",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "# Write your code here\n",
+ "# data = insert your method call here\n",
+ "data = transformdata(red_wine,white_wine)\n",
+ "data.head(5)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "bd056fae-7cf1-4e54-99d9-0f19c014534b",
+ "metadata": {},
+ "source": [
+ "SLIDES TO DISCUSS EXPLORATORY STATS COVERING:\n",
+ "- visualisation basics\n",
+ "- mean, median, deviation, skew\n",
+ "- quartiles and outliers\n",
+ "- correlation\n",
+ "\n",
+ "\n",
+ "Let's visualise our data using the seaborn module. Remember you may to install and/or import the module in the block at the beginning of the notebook (and re-run). Seaborn is a Python data visualization library based on matplotlib. It provides a high-level interface for drawing attractive and informative statistical graphics.You can read more about it here: https://seaborn.pydata.org/"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "4effa559-432c-4130-b41d-2e3f11ec0465",
+ "metadata": {},
+ "source": [
+ "This will plot a histogram of the quality of our wine. Experiement with plotting different features of the dataset, e.g. alcohol content, pH etc."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b4e1d074-f5fb-41b1-afc7-1150550db01f",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "seaborn.displot(data.quality, kde=False)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "494dfe1e-15a4-4a41-adda-f4700bac5835",
+ "metadata": {},
+ "source": [
+ "Let's simplify things by converting quality from a 1-10 scale to a simple boolean. A wine is either of high quality, or it is not. This quality feature will be our output feature when we run an inference model."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "5c06e500-1871-4c71-816a-b898cb8633d1",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def settarget(data):\n",
+ " high_quality = (data.quality >= 7).astype(int)\n",
+ " data.quality = high_quality\n",
+ " return data\n",
+ "\n",
+ "data = settarget(data)\n",
+ "data.tail(5)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "661daf61-7b01-4dcd-9f26-30a0dfa3c51a",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "import seaborn as sns\n",
+ "sns.displot(data.quality, kde=False)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "e4fec16b-9490-46a1-9f98-fe917796f219",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "## median, upper and lower quartile, IQR\n",
+ "## histogram for distribution"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "2f886882-1fd1-4633-af8b-602dc90d369a",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "dims = (3, 4)\n",
+ "\n",
+ "f, axes = plt.subplots(dims[0], dims[1], figsize=(25, 15))\n",
+ "axis_i, axis_j = 0, 0\n",
+ "for col in data.columns:\n",
+ " if col == 'is_red' or col == 'quality':\n",
+ " continue # Box plots cannot be used on indicator variables\n",
+ " sns.boxplot(x=data['quality'], y=data[col], ax=axes[axis_i, axis_j])\n",
+ " axis_j += 1\n",
+ " if axis_j == dims[1]:\n",
+ " axis_i += 1\n",
+ " axis_j = 0"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "206b8310-cd76-4012-ba6f-f2f621cd3fde",
+ "metadata": {},
+ "source": [
+ "Check missing value"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "dee4b83a-a069-4ed8-a9c5-935e45539cd3",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "## scenarios for missing data - decision for the missing data\n",
+ "## if alcohol is not an indicator, delete that record\n",
+ "\n",
+ "## what are we going to do with the outliers? are they real outliers?"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "31857042-ba20-42b5-9739-6a017f6b1951",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "data.isna().any()"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "6b89fa04-ee75-4782-ac57-b2f5f2f45239",
+ "metadata": {},
+ "source": [
+ "## Prepare dataset for training model \n",
+ "Split the input data into 3 sets:\n",
+ "\n",
+ "- Train (60% of the dataset used to train the model)\n",
+ "- Validation (20% of the dataset used to tune the hyperparameters)\n",
+ "- Test (20% of the dataset used to report the true performance of the model on an unseen dataset)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "757d77d2-d54e-4a2b-8b8d-1eba01ba61ce",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def get_trainingdata(data):\n",
+ " X = data.drop([\"quality\"], axis=1)\n",
+ " y = data.quality\n",
+ "\n",
+ " # Split out the training data\n",
+ " X_train, X_rem, y_train, y_rem = train_test_split(X, y, train_size=0.6, random_state=123)\n",
+ "\n",
+ " # Split the remaining data equally into validation and test\n",
+ " X_val, X_test, y_val, y_test = train_test_split(X_rem, y_rem, test_size=0.5, random_state=123)\n",
+ " return (X_train,X_val,X_test,y_train,y_val,y_test)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "61d6a7b2-974c-4c6c-a31f-3df48760c805",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "(X_train,X_val,X_test,y_train,y_val,y_test) = get_trainingdata(data)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "cfe73322-99ac-4e6b-8ed6-c475d418e108",
+ "metadata": {
+ "tags": []
+ },
+ "source": [
+ "## Build a baseline model (random forest classifier) \n",
+ "Build a simple classifier using scikit-learn. Use MLflow to keep track of the model accuracy. You can read about Classification - ROC and AUC here if you want \n",
+ "https://developers.google.com/machine-learning/crash-course/classification/roc-and-auc"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "4ea89452-6ec8-43cc-923c-de443450ff35",
+ "metadata": {},
+ "source": [
+ "Enable MLflow autologging"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "4b53a514-9eab-491d-9237-80448e4cea20",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "experiment_name = \"WineQuality\""
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6628b383-14a4-493e-9add-e6076adf6ad5",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# check if experiment name already exists\n",
+ "mlflow.set_tracking_uri(\"http://mlflow:5500\")\n",
+ "mlflow.set_experiment(experiment_name)\n",
+ "\n",
+ "# enable autologging\n",
+ "mlflow.sklearn.autolog(log_input_examples=True)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "4f9e8cf7-0458-49d1-9dfa-a3061bbc00d4",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "def log_featureimportance(model):\n",
+ " tmpdir = tempfile.mkdtemp()\n",
+ " filepath = os.path.join(tmpdir, 'feature_importance.json')\n",
+ " feature_importances = pd.DataFrame(model.feature_importances_, index=X_train.columns.tolist(), columns=['importance'])\n",
+ " feature_importances.sort_values('importance', ascending=False).to_json(filepath)\n",
+ " mlflow.log_artifact(filepath)\n",
+ " return"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "01bdefde-fc6a-4e7d-8c68-649528667fd4",
+ "metadata": {},
+ "source": [
+ "Train random forest"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "9f2832df-baa7-4125-8ef3-681517dbe8b0",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "class SklearnModelWrapper(mlflow.pyfunc.PythonModel):\n",
+ " def __init__(self, model):\n",
+ " self.model = model\n",
+ "\n",
+ " def predict(self, context, model_input):\n",
+ " return self.model.predict_proba(model_input)[:,1]\n",
+ "\n",
+ "def train_randomforest(X_train,y_train,X_test,y_test):\n",
+ "\n",
+ " with mlflow.start_run(run_name='untuned_random_forest'):\n",
+ " n_estimators = 10\n",
+ " model = RandomForestClassifier(n_estimators=n_estimators, random_state=np.random.RandomState(123))\n",
+ " model.fit(X_train, y_train)\n",
+ "\n",
+ " predictions_test = model.predict_proba(X_test)[:,1]\n",
+ " auc_score = roc_auc_score(y_test, predictions_test)\n",
+ " mlflow.log_param('n_estimators', n_estimators) #specify the interested parameter/metric\n",
+ " mlflow.log_metric('auc', auc_score)\n",
+ " wrappedModel = SklearnModelWrapper(model)\n",
+ "\n",
+ " signature = infer_signature(X_train, wrappedModel.predict(None, X_train))\n",
+ "\n",
+ " conda_env = _mlflow_conda_env(\n",
+ " additional_conda_deps=None,\n",
+ " additional_pip_deps=[\"cloudpickle=={}\".format(cloudpickle.__version__), \"scikit-learn=={}\".format(sklearn.__version__)],\n",
+ " additional_conda_channels=None,\n",
+ " )\n",
+ " mlflow.pyfunc.log_model(\"random_forest_model\", python_model=wrappedModel, conda_env=conda_env, signature=signature)\n",
+ " log_featureimportance(model)\n",
+ " return model"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d8957943-d0dc-4803-aab5-6c6ceb8ba34d",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "model = train_randomforest(X_train,y_train,X_test,y_test)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6c8cdc21-a1df-429b-8be3-3e4d1ea5ff2d",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# Sanity-check: This should match the AUC logged by MLflow\n",
+ "print(f'AUC: {roc_auc_score(y_test, model.predict_proba(X_test)[:,1])}')"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6eba2f19-7755-412e-bc67-2e586817582c",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# Sanity-check: This should match the feature importance logged by MLflow\n",
+ "feature_importances = pd.DataFrame(model.feature_importances_, index=X_train.columns.tolist(), columns=['importance'])\n",
+ "feature_importances.sort_values('importance', ascending=False)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "b4206c08-5021-43dd-a11d-e7e7f687ebef",
+ "metadata": {},
+ "source": [
+ "## Experiment with a new model (xgboost) \n",
+ "Use the xgboost library to train a more accurate model. Run hyperparameter tuning to train multiple models. As before, the code tracks the performance of each parameter configuration with MLflow."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "84cf68d6-86a4-4daa-927b-b4dc53f8cc9d",
+ "metadata": {
+ "scrolled": true,
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "search_space = {\n",
+ " 'max_depth': scope.int(hp.quniform('max_depth', 50, 100, 10)),\n",
+ " 'learning_rate': hp.loguniform('learning_rate', -3, 0),\n",
+ " 'reg_alpha': hp.loguniform('reg_alpha', -5, -1),\n",
+ " 'reg_lambda': hp.loguniform('reg_lambda', -6, -1),\n",
+ " 'min_child_weight': hp.loguniform('min_child_weight', -1, 3),\n",
+ " 'objective': 'binary:logistic',\n",
+ " 'seed': 123, # Set a seed for deterministic training\n",
+ "}\n",
+ "\n",
+ "def train_model(params):\n",
+ "\n",
+ " mlflow.xgboost.autolog()\n",
+ " with mlflow.start_run(nested=True):\n",
+ " train = xgb.DMatrix(data=X_train, label=y_train)\n",
+ " validation = xgb.DMatrix(data=X_val, label=y_val)\n",
+ "\n",
+ " booster = xgb.train(params=params, dtrain=train, num_boost_round=100,\\\n",
+ " evals=[(validation, \"validation\")], early_stopping_rounds=50)\n",
+ " validation_predictions = booster.predict(validation)\n",
+ " auc_score = roc_auc_score(y_val, validation_predictions)\n",
+ " mlflow.log_metric('auc', auc_score) #specify the interested parameter/metric\n",
+ "\n",
+ " signature = infer_signature(X_train, booster.predict(train))\n",
+ " mlflow.xgboost.log_model(booster, \"model\", signature=signature)\n",
+ "\n",
+ " return {'status': STATUS_OK, 'loss': -1*auc_score, 'booster': booster.attributes()}\n",
+ "\n",
+ "with mlflow.start_run(run_name='xgboost_models'):\n",
+ " best_params = fmin(\n",
+ " fn=train_model,\n",
+ " space=search_space,\n",
+ " algo=tpe.suggest,\n",
+ " max_evals=10,\n",
+ " )"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "12fb65af-5545-4563-a70a-ad62d11e6615",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "best_run = mlflow.search_runs(order_by=['metrics.auc DESC']).iloc[0]\n",
+ "best_run_id = best_run[\"run_id\"]\n",
+ "print(f'AUC of Best Run: {best_run[\"metrics.auc\"]}')"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "2df971e0-1748-489c-b36d-dd481c211a0d",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "best_run_id"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "1f57f0bc-ec52-463c-9241-0bf897465b1b",
+ "metadata": {
+ "tags": []
+ },
+ "source": [
+ "## Predict "
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "db412034-daab-4942-b3ae-0c5410a3e5a5",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# model = mlflow.pyfunc.load_model(f\"models:/TestModelD/production\")\n",
+ "model = mlflow.pyfunc.load_model(\"runs:/\" + best_run_id + \"/model\")\n",
+ "\n",
+ "test_predictions = model.predict(X_test)\n",
+ "print(f'AUC: {roc_auc_score(y_test, test_predictions)}')"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b5593581-c563-4c1a-aa80-f10d77f53209",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "from sklearn.metrics import classification_report\n",
+ "\n",
+ "class_labels = ['white wine', 'red wine']\n",
+ "test_predictions = np.where(test_predictions>0.5, 1, 0)\n",
+ "print(classification_report(y_test, test_predictions, target_names=class_labels))"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b0ebe7ec-a7e2-49bc-88bb-2b5ea79f3807",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "cm = confusion_matrix(y_test, test_predictions)\n",
+ "disp = ConfusionMatrixDisplay(confusion_matrix=cm)\n",
+ "\n",
+ "disp.plot()\n",
+ "plt.show()"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d9f40cc8-9a79-4521-9783-6a3aa0b0127a",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# register the best model\n",
+ "new_model_version = mlflow.register_model(f\"runs:/{best_run_id}/model\", \"WineQuality\")"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d6d78d2a-563d-41de-a2a9-1dbddbdcb3cc",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# # Promote the new model version to Production\n",
+ "# client.transition_model_version_stage(\n",
+ "# name=\"TestModelD\",\n",
+ "# version=new_model_version.version,\n",
+ "# stage=\"Production\"\n",
+ "# )"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d112aed5-fe65-47b3-aff3-899a96010bdf",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# # clean up models\n",
+ "# from mlflow.tracking import MlflowClient\n",
+ "# client = MlflowClient()\n",
+ "# client.delete_registered_model(name=\"winequality\")"
+ ]
+ }
+ ],
+ "metadata": {
+ "kernelspec": {
+ "display_name": "Python 3.9",
+ "language": "python",
+ "name": "python3"
+ },
+ "language_info": {
+ "codemirror_mode": {
+ "name": "ipython",
+ "version": 3
+ },
+ "file_extension": ".py",
+ "mimetype": "text/x-python",
+ "name": "python",
+ "nbconvert_exporter": "python",
+ "pygments_lexer": "ipython3",
+ "version": "3.9.16"
+ }
+ },
+ "nbformat": 4,
+ "nbformat_minor": 5
+}
diff --git a/1-prep_and_gather_data_instructor.ipynb b/1-prep_and_gather_data_instructor.ipynb
new file mode 100644
index 0000000..f72a9e5
--- /dev/null
+++ b/1-prep_and_gather_data_instructor.ipynb
@@ -0,0 +1,771 @@
+{
+ "cells": [
+ {
+ "cell_type": "markdown",
+ "id": "73878580-3986-4fc3-81b6-f598e0783b4f",
+ "metadata": {},
+ "source": [
+ "# Demo project - Wine quality prediction"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "53536e98-387e-4457-9d03-5a1d435837a6",
+ "metadata": {},
+ "source": [
+ "## Contents:\n",
+ "* [Import packages](#first-bullet)\n",
+ "* [Load Data](#second-bullet)\n",
+ "* [Exploratory data analysis](#third-bullet)\n",
+ "* [Prepare dataset for training model](#forth-bullet)\n",
+ "* [Build a baseline model](#fifth-bullet)\n",
+ "* [Experiment with a new model](#sixth-bullet)\n",
+ "* [Predict](#seventh-bullet)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "ff902f5d-7bc1-49c9-8994-d4c3e1cff7e8",
+ "metadata": {},
+ "source": [
+ "## Import packages "
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "d73dd05b-5b58-4587-a1df-02a9c96d1996",
+ "metadata": {},
+ "source": [
+ "In addition to the s3fs package, we will need to import hyperopt, cloudpickle, mlflow, and xgboost
\n",
+ "Modify the following cell to make this happen
"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "e3744f2b-4d07-4f10-84f0-1daa05cb8573",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "!pip install s3fs"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "fa3a0921-36d0-4b26-8378-cd5adab57fb8",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "import boto3\n",
+ "import pandas\n"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "c5ac7837-ae31-4b73-9fd0-e8d8dddbafb6",
+ "metadata": {
+ "tags": []
+ },
+ "source": [
+ "## Load Data "
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "f0fb050a-b46a-4de4-8fdd-0fe8e3b61d3e",
+ "metadata": {},
+ "source": [
+ "Assumption: the bucket is already created and \"winequality-red.csv\" & \"winequality-white.csv\" are uploaded into the bucket
\n",
+ "Read data from object store
\n",
+ "Connect to object store and instantiate a client object using boto3 session:"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "f2aa0f94-5b37-4873-9467-44e6703af9c8",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "AWS_ACCESS_KEY_ID = os.environ['AWS_ACCESS_KEY_ID']\n",
+ "AWS_SECRET_ACCESS_KEY = os.environ['AWS_SECRET_ACCESS_KEY']\n",
+ "AWS_S3_ENDPOINT = os.environ['AWS_S3_ENDPOINT']\n",
+ "AWS_S3_BUCKET = os.environ['AWS_S3_BUCKET']"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "47ae3876-523d-47f1-b895-e26bfb65977f",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "s3conn = boto3.Session(aws_access_key_id=S3ACCESS_KEY,\n",
+ " aws_secret_access_key=S3SECRET_KEY)\n",
+ "s3_client = s3conn.client('s3',endpoint_url = S3ENDPOINT, verify=False)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "4d5bb280-9473-46a0-b575-dfa64f9872cf",
+ "metadata": {
+ "scrolled": true,
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "s3_client.list_objects(Bucket='data')"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "7cd65395-3135-45a0-8d7a-227ff2a05840",
+ "metadata": {},
+ "source": [
+ "Using the s3_client, retrieve data from objective store:
"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "9207c9a6-bcc4-42fc-abf1-ff84c431dbbd",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "objectname = \"winequality-red.csv\"\n",
+ "file_addr = \"data/winequality-red.csv\"\n",
+ "response = s3_client.download_file(bucket_name, objectname, file_addr)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "e472d265-819b-4881-9fd4-b2fda3933179",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "objectname = \"winequality-white.csv\"\n",
+ "file_addr = \"data/winequality-white.csv\"\n",
+ "response = s3_client.download_file(bucket_name, objectname, file_addr)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "6e94b018-a5c8-4814-8619-0eece4e5d246",
+ "metadata": {},
+ "source": [
+ "## Exploratory data analysis "
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "3131849f-2412-4468-93b2-b21e73f91aa7",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "import s3fs\n",
+ "def read_data(datasrc):\n",
+ " data = pd.read_csv(\n",
+ " \"s3://\" + AWS_S3_BUCKET + \"/\" + datasrc, sep=';',\n",
+ " storage_options={\n",
+ " \"key\": AWS_ACCESS_KEY_ID,\n",
+ " \"secret\": AWS_SECRET_ACCESS_KEY,\n",
+ " \"endpoint_url\": AWS_S3_ENDPOINT,\n",
+ " }\n",
+ " )\n",
+ " return data"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b0ab7588-f839-4325-a4cb-22486498884d",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "## after concatanation, setting the value of is_red for which is a red wine, which is a white wine - feature"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6af49215-b766-4ca4-a140-6e21f8d7ecb7",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def transformdata(red_wine,white_wine):\n",
+ " red_wine['is_red'] = 1\n",
+ " white_wine['is_red'] = 0\n",
+ " data = pd.concat([red_wine, white_wine], axis=0)\n",
+ " data.rename(columns=lambda x: x.replace(' ', '_'), inplace=True)\n",
+ " return data"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "fa3e4777-76c2-4687-a8da-6e10c18fe536",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "white_wine = read_data('winequality-white.csv')\n",
+ "red_wine = read_data('winequality-red.csv')\n",
+ "data = transformdata(red_wine, white_wine)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "a8620947-ab99-43cb-9a56-128f9ff03fc5",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "data.head(5)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "bd056fae-7cf1-4e54-99d9-0f19c014534b",
+ "metadata": {},
+ "source": [
+ "Visualize data"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "cad8a920-4a11-4a5f-b60e-6eaf9d882bb2",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "!pip install seaborn"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b4e1d074-f5fb-41b1-afc7-1150550db01f",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "import seaborn as sns\n",
+ "sns.displot(data.quality, kde=False)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "ee8a4a2e-3f5d-4699-a278-21b2c7c8a17f",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "## set type boolean"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "5c06e500-1871-4c71-816a-b898cb8633d1",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def settarget(data):\n",
+ " high_quality = (data.quality >= 7).astype(int)\n",
+ " data.quality = high_quality\n",
+ " return data\n",
+ "\n",
+ "data = settarget(data)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "661daf61-7b01-4dcd-9f26-30a0dfa3c51a",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "import seaborn as sns\n",
+ "sns.displot(data.quality, kde=False)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "e4fec16b-9490-46a1-9f98-fe917796f219",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "## median, upper and lower quartile, IQR\n",
+ "## histogram for distribution"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "2f886882-1fd1-4633-af8b-602dc90d369a",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "dims = (3, 4)\n",
+ "\n",
+ "f, axes = plt.subplots(dims[0], dims[1], figsize=(25, 15))\n",
+ "axis_i, axis_j = 0, 0\n",
+ "for col in data.columns:\n",
+ " if col == 'is_red' or col == 'quality':\n",
+ " continue # Box plots cannot be used on indicator variables\n",
+ " sns.boxplot(x=data['quality'], y=data[col], ax=axes[axis_i, axis_j])\n",
+ " axis_j += 1\n",
+ " if axis_j == dims[1]:\n",
+ " axis_i += 1\n",
+ " axis_j = 0"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "206b8310-cd76-4012-ba6f-f2f621cd3fde",
+ "metadata": {},
+ "source": [
+ "Check missing value"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "dee4b83a-a069-4ed8-a9c5-935e45539cd3",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "## scenarios for missing data - decision for the missing data\n",
+ "## if alcohol is not an indicator, delete that record\n",
+ "\n",
+ "## what are we going to do with the outliers? are they real outliers?"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "31857042-ba20-42b5-9739-6a017f6b1951",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "data.isna().any()"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "6b89fa04-ee75-4782-ac57-b2f5f2f45239",
+ "metadata": {},
+ "source": [
+ "## Prepare dataset for training model \n",
+ "Split the input data into 3 sets:\n",
+ "\n",
+ "- Train (60% of the dataset used to train the model)\n",
+ "- Validation (20% of the dataset used to tune the hyperparameters)\n",
+ "- Test (20% of the dataset used to report the true performance of the model on an unseen dataset)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "757d77d2-d54e-4a2b-8b8d-1eba01ba61ce",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "def get_trainingdata(data):\n",
+ " X = data.drop([\"quality\"], axis=1)\n",
+ " y = data.quality\n",
+ "\n",
+ " # Split out the training data\n",
+ " X_train, X_rem, y_train, y_rem = train_test_split(X, y, train_size=0.6, random_state=123)\n",
+ "\n",
+ " # Split the remaining data equally into validation and test\n",
+ " X_val, X_test, y_val, y_test = train_test_split(X_rem, y_rem, test_size=0.5, random_state=123)\n",
+ " return (X_train,X_val,X_test,y_train,y_val,y_test)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "61d6a7b2-974c-4c6c-a31f-3df48760c805",
+ "metadata": {
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "(X_train,X_val,X_test,y_train,y_val,y_test) = get_trainingdata(data)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "cfe73322-99ac-4e6b-8ed6-c475d418e108",
+ "metadata": {
+ "tags": []
+ },
+ "source": [
+ "## Build a baseline model (random forest classifier) \n",
+ "Build a simple classifier using scikit-learn. Use MLflow to keep track of the model accuracy. You can read about Classification - ROC and AUC here if you want \n",
+ "https://developers.google.com/machine-learning/crash-course/classification/roc-and-auc"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "4ea89452-6ec8-43cc-923c-de443450ff35",
+ "metadata": {},
+ "source": [
+ "Enable MLflow autologging"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "4b53a514-9eab-491d-9237-80448e4cea20",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "experiment_name = \"WineQuality\""
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6628b383-14a4-493e-9add-e6076adf6ad5",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# check if experiment name already exists\n",
+ "mlflow.set_tracking_uri(\"http://mlflow:5500\")\n",
+ "mlflow.set_experiment(experiment_name)\n",
+ "\n",
+ "# enable autologging\n",
+ "mlflow.sklearn.autolog(log_input_examples=True)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "4f9e8cf7-0458-49d1-9dfa-a3061bbc00d4",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "def log_featureimportance(model):\n",
+ " tmpdir = tempfile.mkdtemp()\n",
+ " filepath = os.path.join(tmpdir, 'feature_importance.json')\n",
+ " feature_importances = pd.DataFrame(model.feature_importances_, index=X_train.columns.tolist(), columns=['importance'])\n",
+ " feature_importances.sort_values('importance', ascending=False).to_json(filepath)\n",
+ " mlflow.log_artifact(filepath)\n",
+ " return"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "01bdefde-fc6a-4e7d-8c68-649528667fd4",
+ "metadata": {},
+ "source": [
+ "Train random forest"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "9f2832df-baa7-4125-8ef3-681517dbe8b0",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "class SklearnModelWrapper(mlflow.pyfunc.PythonModel):\n",
+ " def __init__(self, model):\n",
+ " self.model = model\n",
+ "\n",
+ " def predict(self, context, model_input):\n",
+ " return self.model.predict_proba(model_input)[:,1]\n",
+ "\n",
+ "def train_randomforest(X_train,y_train,X_test,y_test):\n",
+ "\n",
+ " with mlflow.start_run(run_name='untuned_random_forest'):\n",
+ " n_estimators = 10\n",
+ " model = RandomForestClassifier(n_estimators=n_estimators, random_state=np.random.RandomState(123))\n",
+ " model.fit(X_train, y_train)\n",
+ "\n",
+ " predictions_test = model.predict_proba(X_test)[:,1]\n",
+ " auc_score = roc_auc_score(y_test, predictions_test)\n",
+ " mlflow.log_param('n_estimators', n_estimators) #specify the interested parameter/metric\n",
+ " mlflow.log_metric('auc', auc_score)\n",
+ " wrappedModel = SklearnModelWrapper(model)\n",
+ "\n",
+ " signature = infer_signature(X_train, wrappedModel.predict(None, X_train))\n",
+ "\n",
+ " conda_env = _mlflow_conda_env(\n",
+ " additional_conda_deps=None,\n",
+ " additional_pip_deps=[\"cloudpickle=={}\".format(cloudpickle.__version__), \"scikit-learn=={}\".format(sklearn.__version__)],\n",
+ " additional_conda_channels=None,\n",
+ " )\n",
+ " mlflow.pyfunc.log_model(\"random_forest_model\", python_model=wrappedModel, conda_env=conda_env, signature=signature)\n",
+ " log_featureimportance(model)\n",
+ " return model"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d8957943-d0dc-4803-aab5-6c6ceb8ba34d",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "model = train_randomforest(X_train,y_train,X_test,y_test)"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6c8cdc21-a1df-429b-8be3-3e4d1ea5ff2d",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# Sanity-check: This should match the AUC logged by MLflow\n",
+ "print(f'AUC: {roc_auc_score(y_test, model.predict_proba(X_test)[:,1])}')"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "6eba2f19-7755-412e-bc67-2e586817582c",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# Sanity-check: This should match the feature importance logged by MLflow\n",
+ "feature_importances = pd.DataFrame(model.feature_importances_, index=X_train.columns.tolist(), columns=['importance'])\n",
+ "feature_importances.sort_values('importance', ascending=False)"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "b4206c08-5021-43dd-a11d-e7e7f687ebef",
+ "metadata": {},
+ "source": [
+ "## Experiment with a new model (xgboost) \n",
+ "Use the xgboost library to train a more accurate model. Run hyperparameter tuning to train multiple models. As before, the code tracks the performance of each parameter configuration with MLflow."
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "84cf68d6-86a4-4daa-927b-b4dc53f8cc9d",
+ "metadata": {
+ "scrolled": true,
+ "tags": []
+ },
+ "outputs": [],
+ "source": [
+ "search_space = {\n",
+ " 'max_depth': scope.int(hp.quniform('max_depth', 50, 100, 10)),\n",
+ " 'learning_rate': hp.loguniform('learning_rate', -3, 0),\n",
+ " 'reg_alpha': hp.loguniform('reg_alpha', -5, -1),\n",
+ " 'reg_lambda': hp.loguniform('reg_lambda', -6, -1),\n",
+ " 'min_child_weight': hp.loguniform('min_child_weight', -1, 3),\n",
+ " 'objective': 'binary:logistic',\n",
+ " 'seed': 123, # Set a seed for deterministic training\n",
+ "}\n",
+ "\n",
+ "def train_model(params):\n",
+ "\n",
+ " mlflow.xgboost.autolog()\n",
+ " with mlflow.start_run(nested=True):\n",
+ " train = xgb.DMatrix(data=X_train, label=y_train)\n",
+ " validation = xgb.DMatrix(data=X_val, label=y_val)\n",
+ "\n",
+ " booster = xgb.train(params=params, dtrain=train, num_boost_round=100,\\\n",
+ " evals=[(validation, \"validation\")], early_stopping_rounds=50)\n",
+ " validation_predictions = booster.predict(validation)\n",
+ " auc_score = roc_auc_score(y_val, validation_predictions)\n",
+ " mlflow.log_metric('auc', auc_score) #specify the interested parameter/metric\n",
+ "\n",
+ " signature = infer_signature(X_train, booster.predict(train))\n",
+ " mlflow.xgboost.log_model(booster, \"model\", signature=signature)\n",
+ "\n",
+ " return {'status': STATUS_OK, 'loss': -1*auc_score, 'booster': booster.attributes()}\n",
+ "\n",
+ "with mlflow.start_run(run_name='xgboost_models'):\n",
+ " best_params = fmin(\n",
+ " fn=train_model,\n",
+ " space=search_space,\n",
+ " algo=tpe.suggest,\n",
+ " max_evals=10,\n",
+ " )"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "12fb65af-5545-4563-a70a-ad62d11e6615",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "best_run = mlflow.search_runs(order_by=['metrics.auc DESC']).iloc[0]\n",
+ "best_run_id = best_run[\"run_id\"]\n",
+ "print(f'AUC of Best Run: {best_run[\"metrics.auc\"]}')"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "2df971e0-1748-489c-b36d-dd481c211a0d",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "best_run_id"
+ ]
+ },
+ {
+ "cell_type": "markdown",
+ "id": "1f57f0bc-ec52-463c-9241-0bf897465b1b",
+ "metadata": {
+ "tags": []
+ },
+ "source": [
+ "## Predict "
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "db412034-daab-4942-b3ae-0c5410a3e5a5",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# model = mlflow.pyfunc.load_model(f\"models:/TestModelD/production\")\n",
+ "model = mlflow.pyfunc.load_model(\"runs:/\" + best_run_id + \"/model\")\n",
+ "\n",
+ "test_predictions = model.predict(X_test)\n",
+ "print(f'AUC: {roc_auc_score(y_test, test_predictions)}')"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b5593581-c563-4c1a-aa80-f10d77f53209",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "from sklearn.metrics import classification_report\n",
+ "\n",
+ "class_labels = ['white wine', 'red wine']\n",
+ "test_predictions = np.where(test_predictions>0.5, 1, 0)\n",
+ "print(classification_report(y_test, test_predictions, target_names=class_labels))"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "b0ebe7ec-a7e2-49bc-88bb-2b5ea79f3807",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "cm = confusion_matrix(y_test, test_predictions)\n",
+ "disp = ConfusionMatrixDisplay(confusion_matrix=cm)\n",
+ "\n",
+ "disp.plot()\n",
+ "plt.show()"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d9f40cc8-9a79-4521-9783-6a3aa0b0127a",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# register the best model\n",
+ "new_model_version = mlflow.register_model(f\"runs:/{best_run_id}/model\", \"WineQuality\")"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d6d78d2a-563d-41de-a2a9-1dbddbdcb3cc",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# # Promote the new model version to Production\n",
+ "# client.transition_model_version_stage(\n",
+ "# name=\"TestModelD\",\n",
+ "# version=new_model_version.version,\n",
+ "# stage=\"Production\"\n",
+ "# )"
+ ]
+ },
+ {
+ "cell_type": "code",
+ "execution_count": null,
+ "id": "d112aed5-fe65-47b3-aff3-899a96010bdf",
+ "metadata": {},
+ "outputs": [],
+ "source": [
+ "# # clean up models\n",
+ "# from mlflow.tracking import MlflowClient\n",
+ "# client = MlflowClient()\n",
+ "# client.delete_registered_model(name=\"winequality\")"
+ ]
+ }
+ ],
+ "metadata": {
+ "kernelspec": {
+ "display_name": "Python 3.9",
+ "language": "python",
+ "name": "python3"
+ },
+ "language_info": {
+ "codemirror_mode": {
+ "name": "ipython",
+ "version": 3
+ },
+ "file_extension": ".py",
+ "mimetype": "text/x-python",
+ "name": "python",
+ "nbconvert_exporter": "python",
+ "pygments_lexer": "ipython3",
+ "version": "3.9.16"
+ }
+ },
+ "nbformat": 4,
+ "nbformat_minor": 5
+}
diff --git a/demo_project.ipynb b/demo_project.ipynb
index d6698e2..7eace38 100644
--- a/demo_project.ipynb
+++ b/demo_project.ipynb
@@ -36,209 +36,25 @@
"id": "d73dd05b-5b58-4587-a1df-02a9c96d1996",
"metadata": {},
"source": [
- "Before import packages, install packages as is required by requirements.txt
\n",
+ "Before import packages, install packages as required
\n",
"Any pypi packages can be installed
"
]
},
{
"cell_type": "code",
- "execution_count": 44,
+ "execution_count": null,
"id": "e3744f2b-4d07-4f10-84f0-1daa05cb8573",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "Collecting s3fs\n",
- " Downloading s3fs-2024.6.0-py3-none-any.whl (29 kB)\n",
- "Requirement already satisfied: aiohttp!=4.0.0a0,!=4.0.0a1 in /opt/app-root/lib/python3.9/site-packages (from s3fs) (3.9.5)\n",
- "Collecting aiobotocore<3.0.0,>=2.5.4\n",
- " Downloading aiobotocore-2.13.0-py3-none-any.whl (76 kB)\n",
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- "\u001b[?25hCollecting fsspec==2024.6.0.*\n",
- " Downloading fsspec-2024.6.0-py3-none-any.whl (176 kB)\n",
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- "Collecting aioitertools<1.0.0,>=0.5.1\n",
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- "Requirement already satisfied: wrapt<2.0.0,>=1.10.10 in /opt/app-root/lib/python3.9/site-packages (from aiobotocore<3.0.0,>=2.5.4->s3fs) (1.16.0)\n",
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- "Requirement already satisfied: async-timeout<5.0,>=4.0 in /opt/app-root/lib/python3.9/site-packages (from aiohttp!=4.0.0a0,!=4.0.0a1->s3fs) (4.0.3)\n",
- "Requirement already satisfied: frozenlist>=1.1.1 in /opt/app-root/lib/python3.9/site-packages (from aiohttp!=4.0.0a0,!=4.0.0a1->s3fs) (1.4.1)\n",
- "Requirement already satisfied: typing_extensions>=4.0 in /opt/app-root/lib/python3.9/site-packages (from aioitertools<1.0.0,>=0.5.1->aiobotocore<3.0.0,>=2.5.4->s3fs) (4.11.0)\n",
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- "Requirement already satisfied: python-dateutil<3.0.0,>=2.1 in /opt/app-root/lib/python3.9/site-packages (from botocore<1.34.107,>=1.34.70->aiobotocore<3.0.0,>=2.5.4->s3fs) (2.9.0.post0)\n",
- "Requirement already satisfied: idna>=2.0 in /opt/app-root/lib/python3.9/site-packages (from yarl<2.0,>=1.0->aiohttp!=4.0.0a0,!=4.0.0a1->s3fs) (3.7)\n",
- "Requirement already satisfied: six>=1.5 in /opt/app-root/lib/python3.9/site-packages (from python-dateutil<3.0.0,>=2.1->botocore<1.34.107,>=1.34.70->aiobotocore<3.0.0,>=2.5.4->s3fs) (1.16.0)\n",
- "Installing collected packages: fsspec, aioitertools, aiobotocore, s3fs\n",
- " Attempting uninstall: fsspec\n",
- " Found existing installation: fsspec 2024.3.1\n",
- " Uninstalling fsspec-2024.3.1:\n",
- " Successfully uninstalled fsspec-2024.3.1\n",
- "Successfully installed aiobotocore-2.13.0 aioitertools-0.11.0 fsspec-2024.6.0 s3fs-2024.6.0\n",
- "\n",
- "\u001b[1m[\u001b[0m\u001b[34;49mnotice\u001b[0m\u001b[1;39;49m]\u001b[0m\u001b[39;49m A new release of pip available: \u001b[0m\u001b[31;49m22.2.2\u001b[0m\u001b[39;49m -> \u001b[0m\u001b[32;49m24.0\u001b[0m\n",
- "\u001b[1m[\u001b[0m\u001b[34;49mnotice\u001b[0m\u001b[1;39;49m]\u001b[0m\u001b[39;49m To update, run: \u001b[0m\u001b[32;49mpip install --upgrade pip\u001b[0m\n"
- ]
- }
- ],
- "source": [
- "!pip install s3fs"
- ]
- },
- {
- "cell_type": "code",
- "execution_count": 1,
- "id": "37a5e193-27e4-4fc2-b315-72fbaf745bd1",
- "metadata": {
- "tags": []
- },
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
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- "Collecting opentelemetry-semantic-conventions==0.46b0\n",
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- "Collecting greenlet!=0.4.17\n",
- " Downloading greenlet-3.0.3-cp39-cp39-manylinux_2_24_x86_64.manylinux_2_28_x86_64.whl (614 kB)\n",
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- "Installing collected packages: py4j, aniso8601, Werkzeug, sqlparse, querystring-parser, pyarrow, Mako, itsdangerous, gunicorn, greenlet, graphql-core, future, cloudpickle, blinker, xgboost, sqlalchemy, opentelemetry-api, markdown, hyperopt, graphql-relay, Flask, opentelemetry-semantic-conventions, graphene, alembic, opentelemetry-sdk, mlflow\n",
- " Attempting uninstall: pyarrow\n",
- " Found existing installation: pyarrow 16.0.0\n",
- " Uninstalling pyarrow-16.0.0:\n",
- " Successfully uninstalled pyarrow-16.0.0\n",
- "Successfully installed Flask-3.0.3 Mako-1.3.5 Werkzeug-3.0.3 alembic-1.13.1 aniso8601-9.0.1 blinker-1.8.2 cloudpickle-3.0.0 future-1.0.0 graphene-3.3 graphql-core-3.2.3 graphql-relay-3.2.0 greenlet-3.0.3 gunicorn-22.0.0 hyperopt-0.2.7 itsdangerous-2.2.0 markdown-3.6 mlflow-2.13.2 opentelemetry-api-1.25.0 opentelemetry-sdk-1.25.0 opentelemetry-semantic-conventions-0.46b0 py4j-0.10.9.7 pyarrow-15.0.2 querystring-parser-1.2.4 sqlalchemy-2.0.30 sqlparse-0.5.0 xgboost-2.0.3\n",
- "\n",
- "\u001b[1m[\u001b[0m\u001b[34;49mnotice\u001b[0m\u001b[1;39;49m]\u001b[0m\u001b[39;49m A new release of pip available: \u001b[0m\u001b[31;49m22.2.2\u001b[0m\u001b[39;49m -> \u001b[0m\u001b[32;49m24.0\u001b[0m\n",
- "\u001b[1m[\u001b[0m\u001b[34;49mnotice\u001b[0m\u001b[1;39;49m]\u001b[0m\u001b[39;49m To update, run: \u001b[0m\u001b[32;49mpip install --upgrade pip\u001b[0m\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
- "!pip install hyperopt cloudpickle mlflow xgboost"
+ "!pip install s3fs hyperopt cloudpickle mlflow xgboost"
]
},
{
"cell_type": "code",
- "execution_count": 22,
+ "execution_count": null,
"id": "fa3a0921-36d0-4b26-8378-cd5adab57fb8",
"metadata": {
"tags": []
@@ -280,7 +96,7 @@
},
{
"cell_type": "code",
- "execution_count": 23,
+ "execution_count": null,
"id": "6b6d8a33-66ff-492d-b85e-0e73587d93f8",
"metadata": {
"tags": []
@@ -342,7 +158,7 @@
},
{
"cell_type": "code",
- "execution_count": 54,
+ "execution_count": null,
"id": "f2aa0f94-5b37-4873-9467-44e6703af9c8",
"metadata": {
"tags": []
@@ -357,7 +173,7 @@
},
{
"cell_type": "code",
- "execution_count": 25,
+ "execution_count": null,
"id": "47ae3876-523d-47f1-b895-e26bfb65977f",
"metadata": {
"tags": []
@@ -371,66 +187,13 @@
},
{
"cell_type": "code",
- "execution_count": 27,
+ "execution_count": null,
"id": "4d5bb280-9473-46a0-b575-dfa64f9872cf",
"metadata": {
"scrolled": true,
"tags": []
},
- "outputs": [
- {
- "data": {
- "text/plain": [
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- " 'HostId': 'dd9025bab4ad464b049177c95eb6ebf374d3b3fd1af9251148b658df7ac2e3e8',\n",
- " 'HTTPStatusCode': 200,\n",
- " 'HTTPHeaders': {'accept-ranges': 'bytes',\n",
- " 'content-length': '1265',\n",
- " 'content-security-policy': 'block-all-mixed-content',\n",
- " 'content-type': 'application/xml',\n",
- " 'server': 'MinIO',\n",
- " 'strict-transport-security': 'max-age=31536000; includeSubDomains',\n",
- " 'vary': 'Origin, Accept-Encoding',\n",
- " 'x-amz-id-2': 'dd9025bab4ad464b049177c95eb6ebf374d3b3fd1af9251148b658df7ac2e3e8',\n",
- " 'x-amz-request-id': '17D8412F76BD3277',\n",
- " 'x-content-type-options': 'nosniff',\n",
- " 'x-xss-protection': '1; mode=block',\n",
- " 'date': 'Wed, 12 Jun 2024 12:22:09 GMT'},\n",
- " 'RetryAttempts': 0},\n",
- " 'IsTruncated': False,\n",
- " 'Marker': '',\n",
- " 'Contents': [{'Key': 'wine_quality.csv',\n",
- " 'LastModified': datetime.datetime(2024, 6, 12, 11, 43, 12, 11000, tzinfo=tzlocal()),\n",
- " 'ETag': '\"17fbffe83c746612cc247b182e9f7278\"',\n",
- " 'Size': 264425,\n",
- " 'StorageClass': 'STANDARD',\n",
- " 'Owner': {'DisplayName': 'minio',\n",
- " 'ID': '02d6176db174dc93cb1b899f7c6078f08654445fe8cf1b6ce98d8855f66bdbf4'}},\n",
- " {'Key': 'winequality-red.csv',\n",
- " 'LastModified': datetime.datetime(2024, 6, 12, 11, 55, 5, 250000, tzinfo=tzlocal()),\n",
- " 'ETag': '\"2daeecee174368f8a33b82c8cccae3a5\"',\n",
- " 'Size': 84199,\n",
- " 'StorageClass': 'STANDARD',\n",
- " 'Owner': {'DisplayName': 'minio',\n",
- " 'ID': '02d6176db174dc93cb1b899f7c6078f08654445fe8cf1b6ce98d8855f66bdbf4'}},\n",
- " {'Key': 'winequality-white.csv',\n",
- " 'LastModified': datetime.datetime(2024, 6, 12, 11, 55, 5, 250000, tzinfo=tzlocal()),\n",
- " 'ETag': '\"5d9ff0f7f716dace19e3ab4578775fd7\"',\n",
- " 'Size': 264426,\n",
- " 'StorageClass': 'STANDARD',\n",
- " 'Owner': {'DisplayName': 'minio',\n",
- " 'ID': '02d6176db174dc93cb1b899f7c6078f08654445fe8cf1b6ce98d8855f66bdbf4'}}],\n",
- " 'Name': 'data',\n",
- " 'Prefix': '',\n",
- " 'MaxKeys': 1000,\n",
- " 'EncodingType': 'url'}"
- ]
- },
- "execution_count": 27,
- "metadata": {},
- "output_type": "execute_result"
- }
- ],
+ "outputs": [],
"source": [
"s3_client.list_objects(Bucket='data')"
]
@@ -445,7 +208,7 @@
},
{
"cell_type": "code",
- "execution_count": 28,
+ "execution_count": null,
"id": "9207c9a6-bcc4-42fc-abf1-ff84c431dbbd",
"metadata": {
"tags": []
@@ -459,7 +222,7 @@
},
{
"cell_type": "code",
- "execution_count": 29,
+ "execution_count": null,
"id": "e472d265-819b-4881-9fd4-b2fda3933179",
"metadata": {
"tags": []
@@ -481,7 +244,7 @@
},
{
"cell_type": "code",
- "execution_count": 81,
+ "execution_count": null,
"id": "3131849f-2412-4468-93b2-b21e73f91aa7",
"metadata": {
"tags": []
@@ -503,7 +266,7 @@
},
{
"cell_type": "code",
- "execution_count": 82,
+ "execution_count": null,
"id": "b0ab7588-f839-4325-a4cb-22486498884d",
"metadata": {
"tags": []
@@ -515,7 +278,7 @@
},
{
"cell_type": "code",
- "execution_count": 83,
+ "execution_count": null,
"id": "6af49215-b766-4ca4-a140-6e21f8d7ecb7",
"metadata": {
"tags": []
@@ -532,7 +295,7 @@
},
{
"cell_type": "code",
- "execution_count": 84,
+ "execution_count": null,
"id": "fa3e4777-76c2-4687-a8da-6e10c18fe536",
"metadata": {
"tags": []
@@ -546,161 +309,12 @@
},
{
"cell_type": "code",
- "execution_count": 85,
+ "execution_count": null,
"id": "a8620947-ab99-43cb-9a56-128f9ff03fc5",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "data": {
- "text/html": [
- "
\n",
- "\n",
- "
\n",
- " \n",
- " \n",
- " | \n",
- " fixed_acidity | \n",
- " volatile_acidity | \n",
- " citric_acid | \n",
- " residual_sugar | \n",
- " chlorides | \n",
- " free_sulfur_dioxide | \n",
- " total_sulfur_dioxide | \n",
- " density | \n",
- " pH | \n",
- " sulphates | \n",
- " alcohol | \n",
- " quality | \n",
- " is_red | \n",
- "
\n",
- " \n",
- " \n",
- " \n",
- " 0 | \n",
- " 7.4 | \n",
- " 0.70 | \n",
- " 0.00 | \n",
- " 1.9 | \n",
- " 0.076 | \n",
- " 11.0 | \n",
- " 34.0 | \n",
- " 0.9978 | \n",
- " 3.51 | \n",
- " 0.56 | \n",
- " 9.4 | \n",
- " 5 | \n",
- " 1 | \n",
- "
\n",
- " \n",
- " 1 | \n",
- " 7.8 | \n",
- " 0.88 | \n",
- " 0.00 | \n",
- " 2.6 | \n",
- " 0.098 | \n",
- " 25.0 | \n",
- " 67.0 | \n",
- " 0.9968 | \n",
- " 3.20 | \n",
- " 0.68 | \n",
- " 9.8 | \n",
- " 5 | \n",
- " 1 | \n",
- "
\n",
- " \n",
- " 2 | \n",
- " 7.8 | \n",
- " 0.76 | \n",
- " 0.04 | \n",
- " 2.3 | \n",
- " 0.092 | \n",
- " 15.0 | \n",
- " 54.0 | \n",
- " 0.9970 | \n",
- " 3.26 | \n",
- " 0.65 | \n",
- " 9.8 | \n",
- " 5 | \n",
- " 1 | \n",
- "
\n",
- " \n",
- " 3 | \n",
- " 11.2 | \n",
- " 0.28 | \n",
- " 0.56 | \n",
- " 1.9 | \n",
- " 0.075 | \n",
- " 17.0 | \n",
- " 60.0 | \n",
- " 0.9980 | \n",
- " 3.16 | \n",
- " 0.58 | \n",
- " 9.8 | \n",
- " 6 | \n",
- " 1 | \n",
- "
\n",
- " \n",
- " 4 | \n",
- " 7.4 | \n",
- " 0.70 | \n",
- " 0.00 | \n",
- " 1.9 | \n",
- " 0.076 | \n",
- " 11.0 | \n",
- " 34.0 | \n",
- " 0.9978 | \n",
- " 3.51 | \n",
- " 0.56 | \n",
- " 9.4 | \n",
- " 5 | \n",
- " 1 | \n",
- "
\n",
- " \n",
- "
\n",
- "
"
- ],
- "text/plain": [
- " fixed_acidity volatile_acidity citric_acid residual_sugar chlorides \\\n",
- "0 7.4 0.70 0.00 1.9 0.076 \n",
- "1 7.8 0.88 0.00 2.6 0.098 \n",
- "2 7.8 0.76 0.04 2.3 0.092 \n",
- "3 11.2 0.28 0.56 1.9 0.075 \n",
- "4 7.4 0.70 0.00 1.9 0.076 \n",
- "\n",
- " free_sulfur_dioxide total_sulfur_dioxide density pH sulphates \\\n",
- "0 11.0 34.0 0.9978 3.51 0.56 \n",
- "1 25.0 67.0 0.9968 3.20 0.68 \n",
- "2 15.0 54.0 0.9970 3.26 0.65 \n",
- "3 17.0 60.0 0.9980 3.16 0.58 \n",
- "4 11.0 34.0 0.9978 3.51 0.56 \n",
- "\n",
- " alcohol quality is_red \n",
- "0 9.4 5 1 \n",
- "1 9.8 5 1 \n",
- "2 9.8 5 1 \n",
- "3 9.8 6 1 \n",
- "4 9.4 5 1 "
- ]
- },
- "execution_count": 85,
- "metadata": {},
- "output_type": "execute_result"
- }
- ],
+ "outputs": [],
"source": [
"data.head(5)"
]
@@ -715,76 +329,24 @@
},
{
"cell_type": "code",
- "execution_count": 69,
+ "execution_count": null,
"id": "cad8a920-4a11-4a5f-b60e-6eaf9d882bb2",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "Collecting seaborn\n",
- " Downloading seaborn-0.13.2-py3-none-any.whl (294 kB)\n",
- "\u001b[2K \u001b[90m━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━━\u001b[0m \u001b[32m294.9/294.9 kB\u001b[0m \u001b[31m9.8 MB/s\u001b[0m eta \u001b[36m0:00:00\u001b[0m\n",
- "\u001b[?25hRequirement already satisfied: pandas>=1.2 in /opt/app-root/lib/python3.9/site-packages (from seaborn) (2.2.2)\n",
- "Requirement already satisfied: numpy!=1.24.0,>=1.20 in /opt/app-root/lib/python3.9/site-packages (from seaborn) (1.26.4)\n",
- "Requirement already satisfied: matplotlib!=3.6.1,>=3.4 in /opt/app-root/lib/python3.9/site-packages (from seaborn) (3.8.4)\n",
- "Requirement already satisfied: cycler>=0.10 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (0.12.1)\n",
- "Requirement already satisfied: pillow>=8 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (10.3.0)\n",
- "Requirement already satisfied: packaging>=20.0 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (24.0)\n",
- "Requirement already satisfied: python-dateutil>=2.7 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (2.9.0.post0)\n",
- "Requirement already satisfied: fonttools>=4.22.0 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (4.51.0)\n",
- "Requirement already satisfied: pyparsing>=2.3.1 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (3.1.2)\n",
- "Requirement already satisfied: contourpy>=1.0.1 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (1.2.1)\n",
- "Requirement already satisfied: importlib-resources>=3.2.0 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (6.4.0)\n",
- "Requirement already satisfied: kiwisolver>=1.3.1 in /opt/app-root/lib/python3.9/site-packages (from matplotlib!=3.6.1,>=3.4->seaborn) (1.4.5)\n",
- "Requirement already satisfied: tzdata>=2022.7 in /opt/app-root/lib/python3.9/site-packages (from pandas>=1.2->seaborn) (2024.1)\n",
- "Requirement already satisfied: pytz>=2020.1 in /opt/app-root/lib/python3.9/site-packages (from pandas>=1.2->seaborn) (2024.1)\n",
- "Requirement already satisfied: zipp>=3.1.0 in /opt/app-root/lib/python3.9/site-packages (from importlib-resources>=3.2.0->matplotlib!=3.6.1,>=3.4->seaborn) (3.18.1)\n",
- "Requirement already satisfied: six>=1.5 in /opt/app-root/lib/python3.9/site-packages (from python-dateutil>=2.7->matplotlib!=3.6.1,>=3.4->seaborn) (1.16.0)\n",
- "Installing collected packages: seaborn\n",
- "Successfully installed seaborn-0.13.2\n",
- "\n",
- "\u001b[1m[\u001b[0m\u001b[34;49mnotice\u001b[0m\u001b[1;39;49m]\u001b[0m\u001b[39;49m A new release of pip available: \u001b[0m\u001b[31;49m22.2.2\u001b[0m\u001b[39;49m -> \u001b[0m\u001b[32;49m24.0\u001b[0m\n",
- "\u001b[1m[\u001b[0m\u001b[34;49mnotice\u001b[0m\u001b[1;39;49m]\u001b[0m\u001b[39;49m To update, run: \u001b[0m\u001b[32;49mpip install --upgrade pip\u001b[0m\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"!pip install seaborn"
]
},
{
"cell_type": "code",
- "execution_count": 86,
+ "execution_count": null,
"id": "b4e1d074-f5fb-41b1-afc7-1150550db01f",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "data": {
- "text/plain": [
- ""
- ]
- },
- "execution_count": 86,
- "metadata": {},
- "output_type": "execute_result"
- },
- {
- "data": {
- "image/png": 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",
- "text/plain": [
- ""
- ]
- },
- "metadata": {},
- "output_type": "display_data"
- }
- ],
+ "outputs": [],
"source": [
"import seaborn as sns\n",
"sns.displot(data.quality, kde=False)"
@@ -802,7 +364,7 @@
},
{
"cell_type": "code",
- "execution_count": 87,
+ "execution_count": null,
"id": "5c06e500-1871-4c71-816a-b898cb8633d1",
"metadata": {
"tags": []
@@ -819,33 +381,12 @@
},
{
"cell_type": "code",
- "execution_count": 88,
+ "execution_count": null,
"id": "661daf61-7b01-4dcd-9f26-30a0dfa3c51a",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "data": {
- "text/plain": [
- ""
- ]
- },
- "execution_count": 88,
- "metadata": {},
- "output_type": "execute_result"
- },
- {
- "data": {
- "image/png": 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",
- "text/plain": [
- ""
- ]
- },
- "metadata": {},
- "output_type": "display_data"
- }
- ],
+ "outputs": [],
"source": [
"import seaborn as sns\n",
"sns.displot(data.quality, kde=False)"
@@ -864,23 +405,12 @@
},
{
"cell_type": "code",
- "execution_count": 89,
+ "execution_count": null,
"id": "2f886882-1fd1-4633-af8b-602dc90d369a",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "data": {
- "image/png": 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- "text/plain": [
- ""
- ]
- },
- "metadata": {},
- "output_type": "display_data"
- }
- ],
+ "outputs": [],
"source": [
"dims = (3, 4)\n",
"\n",
@@ -906,7 +436,7 @@
},
{
"cell_type": "code",
- "execution_count": 92,
+ "execution_count": null,
"id": "dee4b83a-a069-4ed8-a9c5-935e45539cd3",
"metadata": {
"tags": []
@@ -921,36 +451,12 @@
},
{
"cell_type": "code",
- "execution_count": 91,
+ "execution_count": null,
"id": "31857042-ba20-42b5-9739-6a017f6b1951",
"metadata": {
"tags": []
},
- "outputs": [
- {
- "data": {
- "text/plain": [
- "fixed_acidity False\n",
- "volatile_acidity False\n",
- "citric_acid False\n",
- "residual_sugar False\n",
- "chlorides False\n",
- "free_sulfur_dioxide False\n",
- "total_sulfur_dioxide False\n",
- "density False\n",
- "pH False\n",
- "sulphates False\n",
- "alcohol False\n",
- "quality False\n",
- "is_red False\n",
- "dtype: bool"
- ]
- },
- "execution_count": 91,
- "metadata": {},
- "output_type": "execute_result"
- }
- ],
+ "outputs": [],
"source": [
"data.isna().any()"
]
@@ -970,7 +476,7 @@
},
{
"cell_type": "code",
- "execution_count": 95,
+ "execution_count": null,
"id": "757d77d2-d54e-4a2b-8b8d-1eba01ba61ce",
"metadata": {
"tags": []
@@ -991,7 +497,7 @@
},
{
"cell_type": "code",
- "execution_count": 96,
+ "execution_count": null,
"id": "61d6a7b2-974c-4c6c-a31f-3df48760c805",
"metadata": {
"tags": []
@@ -1023,7 +529,7 @@
},
{
"cell_type": "code",
- "execution_count": 20,
+ "execution_count": null,
"id": "4b53a514-9eab-491d-9237-80448e4cea20",
"metadata": {},
"outputs": [],
@@ -1033,7 +539,7 @@
},
{
"cell_type": "code",
- "execution_count": 21,
+ "execution_count": null,
"id": "6628b383-14a4-493e-9add-e6076adf6ad5",
"metadata": {},
"outputs": [],
@@ -1048,7 +554,7 @@
},
{
"cell_type": "code",
- "execution_count": 22,
+ "execution_count": null,
"id": "4f9e8cf7-0458-49d1-9dfa-a3061bbc00d4",
"metadata": {},
"outputs": [],
@@ -1072,7 +578,7 @@
},
{
"cell_type": "code",
- "execution_count": 23,
+ "execution_count": null,
"id": "9f2832df-baa7-4125-8ef3-681517dbe8b0",
"metadata": {},
"outputs": [],
@@ -1111,39 +617,20 @@
},
{
"cell_type": "code",
- "execution_count": 24,
+ "execution_count": null,
"id": "d8957943-d0dc-4803-aab5-6c6ceb8ba34d",
"metadata": {},
- "outputs": [
- {
- "name": "stderr",
- "output_type": "stream",
- "text": [
- "2022/10/14 04:29:17 WARNING mlflow.utils.autologging_utils: MLflow autologging encountered a warning: \"/opt/app-root/lib/python3.8/site-packages/mlflow/models/signature.py:129: UserWarning: Hint: Inferred schema contains integer column(s). Integer columns in Python cannot represent missing values. If your input data contains missing values at inference time, it will be encoded as floats and will cause a schema enforcement error. The best way to avoid this problem is to infer the model schema based on a realistic data sample (training dataset) that includes missing values. Alternatively, you can declare integer columns as doubles (float64) whenever these columns may have missing values. See `Handling Integers With Missing Values `_ for more details.\"\n",
- "2022/10/14 04:29:24 WARNING mlflow.utils.autologging_utils: MLflow autologging encountered a warning: \"/opt/app-root/lib/python3.8/site-packages/_distutils_hack/__init__.py:33: UserWarning: Setuptools is replacing distutils.\"\n",
- "/opt/app-root/lib/python3.8/site-packages/mlflow/models/signature.py:129: UserWarning: Hint: Inferred schema contains integer column(s). Integer columns in Python cannot represent missing values. If your input data contains missing values at inference time, it will be encoded as floats and will cause a schema enforcement error. The best way to avoid this problem is to infer the model schema based on a realistic data sample (training dataset) that includes missing values. Alternatively, you can declare integer columns as doubles (float64) whenever these columns may have missing values. See `Handling Integers With Missing Values `_ for more details.\n",
- " inputs = _infer_schema(model_input)\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"model = train_randomforest(X_train,y_train,X_test,y_test)"
]
},
{
"cell_type": "code",
- "execution_count": 25,
+ "execution_count": null,
"id": "6c8cdc21-a1df-429b-8be3-3e4d1ea5ff2d",
"metadata": {},
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "AUC: 0.8540300975814177\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"# Sanity-check: This should match the AUC logged by MLflow\n",
"print(f'AUC: {roc_auc_score(y_test, model.predict_proba(X_test)[:,1])}')"
@@ -1151,108 +638,10 @@
},
{
"cell_type": "code",
- "execution_count": 26,
+ "execution_count": null,
"id": "6eba2f19-7755-412e-bc67-2e586817582c",
"metadata": {},
- "outputs": [
- {
- "data": {
- "text/html": [
- "\n",
- "\n",
- "
\n",
- " \n",
- " \n",
- " | \n",
- " importance | \n",
- "
\n",
- " \n",
- " \n",
- " \n",
- " alcohol | \n",
- " 0.160192 | \n",
- "
\n",
- " \n",
- " density | \n",
- " 0.117415 | \n",
- "
\n",
- " \n",
- " volatile_acidity | \n",
- " 0.093136 | \n",
- "
\n",
- " \n",
- " chlorides | \n",
- " 0.086618 | \n",
- "
\n",
- " \n",
- " residual_sugar | \n",
- " 0.082544 | \n",
- "
\n",
- " \n",
- " free_sulfur_dioxide | \n",
- " 0.080473 | \n",
- "
\n",
- " \n",
- " pH | \n",
- " 0.080212 | \n",
- "
\n",
- " \n",
- " total_sulfur_dioxide | \n",
- " 0.077798 | \n",
- "
\n",
- " \n",
- " sulphates | \n",
- " 0.075780 | \n",
- "
\n",
- " \n",
- " citric_acid | \n",
- " 0.071857 | \n",
- "
\n",
- " \n",
- " fixed_acidity | \n",
- " 0.071841 | \n",
- "
\n",
- " \n",
- " is_red | \n",
- " 0.002134 | \n",
- "
\n",
- " \n",
- "
\n",
- "
"
- ],
- "text/plain": [
- " importance\n",
- "alcohol 0.160192\n",
- "density 0.117415\n",
- "volatile_acidity 0.093136\n",
- "chlorides 0.086618\n",
- "residual_sugar 0.082544\n",
- "free_sulfur_dioxide 0.080473\n",
- "pH 0.080212\n",
- "total_sulfur_dioxide 0.077798\n",
- "sulphates 0.075780\n",
- "citric_acid 0.071857\n",
- "fixed_acidity 0.071841\n",
- "is_red 0.002134"
- ]
- },
- "execution_count": 26,
- "metadata": {},
- "output_type": "execute_result"
- }
- ],
+ "outputs": [],
"source": [
"# Sanity-check: This should match the feature importance logged by MLflow\n",
"feature_importances = pd.DataFrame(model.feature_importances_, index=X_train.columns.tolist(), columns=['importance'])\n",
@@ -1270,978 +659,13 @@
},
{
"cell_type": "code",
- "execution_count": 27,
+ "execution_count": null,
"id": "84cf68d6-86a4-4daa-927b-b4dc53f8cc9d",
"metadata": {
"scrolled": true,
"tags": []
},
- "outputs": [
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- "output_type": "stream",
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- " 0%| | 0/10 [00:01, ?trial/s, best loss=?]"
- ]
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- {
- "name": "stderr",
- "output_type": "stream",
- "text": [
- "2022/10/14 04:30:35 WARNING mlflow.utils.autologging_utils: MLflow autologging encountered a warning: \"/opt/app-root/lib/python3.8/site-packages/mlflow/models/signature.py:129: UserWarning: Hint: Inferred schema contains integer column(s). Integer columns in Python cannot represent missing values. If your input data contains missing values at inference time, it will be encoded as floats and will cause a schema enforcement error. The best way to avoid this problem is to infer the model schema based on a realistic data sample (training dataset) that includes missing values. Alternatively, you can declare integer columns as doubles (float64) whenever these columns may have missing values. See `Handling Integers With Missing Values `_ for more details.\"\n",
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- "/opt/app-root/lib/python3.8/site-packages/mlflow/models/signature.py:129: UserWarning: Hint: Inferred schema contains integer column(s). Integer columns in Python cannot represent missing values. If your input data contains missing values at inference time, it will be encoded as floats and will cause a schema enforcement error. The best way to avoid this problem is to infer the model schema based on a realistic data sample (training dataset) that includes missing values. Alternatively, you can declare integer columns as doubles (float64) whenever these columns may have missing values. See `Handling Integers With Missing Values `_ for more details.\n",
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- ]
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- "[97]\tvalidation-logloss:0.30750 \n",
- "[98]\tvalidation-logloss:0.30737 \n",
- "[99]\tvalidation-logloss:0.30738 \n",
- " 80%|████████ | 8/10 [01:51<00:27, 13.65s/trial, best loss: -0.8990124844137253]"
- ]
- },
- {
- "name": "stderr",
- "output_type": "stream",
- "text": [
- "/opt/app-root/lib/python3.8/site-packages/mlflow/models/signature.py:129: UserWarning: Hint: Inferred schema contains integer column(s). Integer columns in Python cannot represent missing values. If your input data contains missing values at inference time, it will be encoded as floats and will cause a schema enforcement error. The best way to avoid this problem is to infer the model schema based on a realistic data sample (training dataset) that includes missing values. Alternatively, you can declare integer columns as doubles (float64) whenever these columns may have missing values. See `Handling Integers With Missing Values `_ for more details.\n",
- " inputs = _infer_schema(model_input)\n",
- "\n"
- ]
- },
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "[0]\tvalidation-logloss:0.65702 \n",
- "[1]\tvalidation-logloss:0.62577 \n",
- "[2]\tvalidation-logloss:0.59710 \n",
- "[3]\tvalidation-logloss:0.57311 \n",
- "[4]\tvalidation-logloss:0.55046 \n",
- "[5]\tvalidation-logloss:0.53164 \n",
- "[6]\tvalidation-logloss:0.51396 \n",
- "[7]\tvalidation-logloss:0.49871 \n",
- "[8]\tvalidation-logloss:0.48454 \n",
- "[9]\tvalidation-logloss:0.47101 \n",
- "[10]\tvalidation-logloss:0.45840 \n",
- "[11]\tvalidation-logloss:0.44730 \n",
- "[12]\tvalidation-logloss:0.43741 \n",
- "[13]\tvalidation-logloss:0.42839 \n",
- "[14]\tvalidation-logloss:0.41996 \n",
- "[15]\tvalidation-logloss:0.41202 \n",
- "[16]\tvalidation-logloss:0.40536 \n",
- "[17]\tvalidation-logloss:0.39882 \n",
- "[18]\tvalidation-logloss:0.39293 \n",
- "[19]\tvalidation-logloss:0.38739 \n",
- "[20]\tvalidation-logloss:0.38258 \n",
- "[21]\tvalidation-logloss:0.37814 \n",
- "[22]\tvalidation-logloss:0.37355 \n",
- "[23]\tvalidation-logloss:0.36959 \n",
- "[24]\tvalidation-logloss:0.36643 \n",
- "[25]\tvalidation-logloss:0.36290 \n",
- "[26]\tvalidation-logloss:0.35995 \n",
- "[27]\tvalidation-logloss:0.35751 \n",
- "[28]\tvalidation-logloss:0.35510 \n",
- "[29]\tvalidation-logloss:0.35303 \n",
- "[30]\tvalidation-logloss:0.35114 \n",
- "[31]\tvalidation-logloss:0.34883 \n",
- "[32]\tvalidation-logloss:0.34649 \n",
- "[33]\tvalidation-logloss:0.34441 \n",
- "[34]\tvalidation-logloss:0.34323 \n",
- "[35]\tvalidation-logloss:0.34123 \n",
- "[36]\tvalidation-logloss:0.33954 \n",
- "[37]\tvalidation-logloss:0.33859 \n",
- "[38]\tvalidation-logloss:0.33794 \n",
- "[39]\tvalidation-logloss:0.33690 \n",
- "[40]\tvalidation-logloss:0.33546 \n",
- "[41]\tvalidation-logloss:0.33384 \n",
- "[42]\tvalidation-logloss:0.33290 \n",
- "[43]\tvalidation-logloss:0.33248 \n",
- "[44]\tvalidation-logloss:0.33231 \n",
- "[45]\tvalidation-logloss:0.33139 \n",
- "[46]\tvalidation-logloss:0.33070 \n",
- "[47]\tvalidation-logloss:0.32985 \n",
- "[48]\tvalidation-logloss:0.32950 \n",
- "[49]\tvalidation-logloss:0.32878 \n",
- "[50]\tvalidation-logloss:0.32798 \n",
- "[51]\tvalidation-logloss:0.32706 \n",
- "[52]\tvalidation-logloss:0.32602 \n",
- "[53]\tvalidation-logloss:0.32508 \n",
- "[54]\tvalidation-logloss:0.32440 \n",
- "[55]\tvalidation-logloss:0.32343 \n",
- "[56]\tvalidation-logloss:0.32260 \n",
- "[57]\tvalidation-logloss:0.32177 \n",
- "[58]\tvalidation-logloss:0.32132 \n",
- "[59]\tvalidation-logloss:0.32068 \n",
- "[60]\tvalidation-logloss:0.31944 \n",
- "[61]\tvalidation-logloss:0.31925 \n",
- "[62]\tvalidation-logloss:0.31873 \n",
- "[63]\tvalidation-logloss:0.31814 \n",
- "[64]\tvalidation-logloss:0.31807 \n",
- "[65]\tvalidation-logloss:0.31760 \n",
- "[66]\tvalidation-logloss:0.31730 \n",
- "[67]\tvalidation-logloss:0.31684 \n",
- "[68]\tvalidation-logloss:0.31663 \n",
- "[69]\tvalidation-logloss:0.31657 \n",
- "[70]\tvalidation-logloss:0.31650 \n",
- "[71]\tvalidation-logloss:0.31569 \n",
- "[72]\tvalidation-logloss:0.31466 \n",
- "[73]\tvalidation-logloss:0.31462 \n",
- "[74]\tvalidation-logloss:0.31426 \n",
- "[75]\tvalidation-logloss:0.31395 \n",
- "[76]\tvalidation-logloss:0.31369 \n",
- "[77]\tvalidation-logloss:0.31315 \n",
- "[78]\tvalidation-logloss:0.31290 \n",
- "[79]\tvalidation-logloss:0.31303 \n",
- "[80]\tvalidation-logloss:0.31275 \n",
- "[81]\tvalidation-logloss:0.31255 \n",
- "[82]\tvalidation-logloss:0.31278 \n",
- "[83]\tvalidation-logloss:0.31270 \n",
- "[84]\tvalidation-logloss:0.31266 \n",
- "[85]\tvalidation-logloss:0.31258 \n",
- "[86]\tvalidation-logloss:0.31252 \n",
- "[87]\tvalidation-logloss:0.31239 \n",
- "[88]\tvalidation-logloss:0.31204 \n",
- "[89]\tvalidation-logloss:0.31141 \n",
- "[90]\tvalidation-logloss:0.31104 \n",
- "[91]\tvalidation-logloss:0.31091 \n",
- "[92]\tvalidation-logloss:0.31090 \n",
- "[93]\tvalidation-logloss:0.31114 \n",
- "[94]\tvalidation-logloss:0.31106 \n",
- "[95]\tvalidation-logloss:0.31056 \n",
- "[96]\tvalidation-logloss:0.31044 \n",
- "[97]\tvalidation-logloss:0.31022 \n",
- "[98]\tvalidation-logloss:0.31044 \n",
- "[99]\tvalidation-logloss:0.31037 \n",
- " 90%|█████████ | 9/10 [02:05<00:13, 13.90s/trial, best loss: -0.8990124844137253]"
- ]
- },
- {
- "name": "stderr",
- "output_type": "stream",
- "text": [
- "/opt/app-root/lib/python3.8/site-packages/mlflow/models/signature.py:129: UserWarning: Hint: Inferred schema contains integer column(s). Integer columns in Python cannot represent missing values. If your input data contains missing values at inference time, it will be encoded as floats and will cause a schema enforcement error. The best way to avoid this problem is to infer the model schema based on a realistic data sample (training dataset) that includes missing values. Alternatively, you can declare integer columns as doubles (float64) whenever these columns may have missing values. See `Handling Integers With Missing Values `_ for more details.\n",
- " inputs = _infer_schema(model_input)\n",
- "\n"
- ]
- },
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "100%|██████████| 10/10 [02:17<00:00, 13.72s/trial, best loss: -0.8990124844137253]\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"search_space = {\n",
" 'max_depth': scope.int(hp.quniform('max_depth', 50, 100, 10)),\n",
@@ -2282,18 +706,10 @@
},
{
"cell_type": "code",
- "execution_count": 28,
+ "execution_count": null,
"id": "12fb65af-5545-4563-a70a-ad62d11e6615",
"metadata": {},
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "AUC of Best Run: 0.8990124844137253\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"best_run = mlflow.search_runs(order_by=['metrics.auc DESC']).iloc[0]\n",
"best_run_id = best_run[\"run_id\"]\n",
@@ -2302,21 +718,10 @@
},
{
"cell_type": "code",
- "execution_count": 29,
+ "execution_count": null,
"id": "2df971e0-1748-489c-b36d-dd481c211a0d",
"metadata": {},
- "outputs": [
- {
- "data": {
- "text/plain": [
- "'fbd116d8519d4119b32f0d7b7d56c980'"
- ]
- },
- "execution_count": 29,
- "metadata": {},
- "output_type": "execute_result"
- }
- ],
+ "outputs": [],
"source": [
"best_run_id"
]
@@ -2333,18 +738,10 @@
},
{
"cell_type": "code",
- "execution_count": 30,
+ "execution_count": null,
"id": "db412034-daab-4942-b3ae-0c5410a3e5a5",
"metadata": {},
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- "AUC: 0.903522359913793\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"# model = mlflow.pyfunc.load_model(f\"models:/TestModelD/production\")\n",
"model = mlflow.pyfunc.load_model(\"runs:/\" + best_run_id + \"/model\")\n",
@@ -2355,26 +752,10 @@
},
{
"cell_type": "code",
- "execution_count": 31,
+ "execution_count": null,
"id": "b5593581-c563-4c1a-aa80-f10d77f53209",
"metadata": {},
- "outputs": [
- {
- "name": "stdout",
- "output_type": "stream",
- "text": [
- " precision recall f1-score support\n",
- "\n",
- " white wine 0.90 0.95 0.92 1044\n",
- " red wine 0.73 0.57 0.64 256\n",
- "\n",
- " accuracy 0.87 1300\n",
- " macro avg 0.81 0.76 0.78 1300\n",
- "weighted avg 0.87 0.87 0.87 1300\n",
- "\n"
- ]
- }
- ],
+ "outputs": [],
"source": [
"from sklearn.metrics import classification_report\n",
"\n",
@@ -2385,23 +766,10 @@
},
{
"cell_type": "code",
- "execution_count": 32,
+ "execution_count": null,
"id": "b0ebe7ec-a7e2-49bc-88bb-2b5ea79f3807",
"metadata": {},
- "outputs": [
- {
- "data": {
- "image/png": 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",
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