Skip to main content

Power BI with ML and Dev ops

 "Power BI can support machine learning (ML) in several ways, especially through its integration with Azure Machine Learning, Python, R, and AI-driven visuals.


"    

Predicting Sales Using Machine Learning in Power BI    

    

"

1. Load Data into Power BI


Sample Data:












2. Enable Python in Power BI


   Go to File > Options and Settings > Options > Under Global > Python scripting, set up your Python environment (Anaconda or standard Python).


3. Add Python Script to Perform Machine Learning


In Power Query Editor, click on Transform → Run Python Script.


Query:


import pandas as pd

from sklearn.model_selection import train_test_split

from sklearn.linear_model import LinearRegression


# Load the dataset

df = dataset # 'dataset' is Power BI's default variable for imported data


# Split into features (X) and target (y)

X = df[['Ad Spend ($)']]

y = df['Sales ($)']


# Train-test split

X_train, X_test, y_train, y_test = train_test_split(X, y, test_size=0.2, random_state=42)


# Train the model

model = LinearRegression()

model.fit(X_train, y_train)


# Predict sales

df['Predicted Sales'] = model.predict(X)


df


Click OK to run the script.




4. Load Predictions into Power BI


The transformed table now includes a Predicted_Sales column. 


Click Close & Apply to load the data back into Power BI


5. Visualize Predictions in Power BI


Go to the Report View in Power BI > Add a Scatter Chart or Line Chart


Set:

X-axis → ""Ad Spend ($)""

Y-axis → ""Sales ($)"" and ""Predicted Sales""



"    

Predicting Customer Churn using ML     

    

"1. Load Data into Power BI


Open Power BI Service (app.powerbi.com) >Navigate to your workspace (Premium workspace required) > Click + New → Select Dataflow > Click Add Data and Connect to a Data Source (CSV, SQL, Azure, etc.)."    

    

2. Create a Machine Learning Model    

"


Inside the Dataflow, click AI Insights → Machine Learning Models > Click + Add a Machine Learning Model >  

Select a Prediction Type:


Binary Prediction (Yes/No) → for predicting Churn (Yes or No)

Regression → for predicting continuous values like sales revenue

Classification → for multi-category predictions"    

    

3.Define the Target Variable    

    

Select Churn as the target column (Yes/No) > Click Next    

    

    

"4. Select Features (Predictor Variables)

"    

"Choose relevant columns that might influence churn:

[Age

Monthly Spend ($)

Tenure (Months)

Support Calls ] > Click Next.



5. Train the Model


a) Power BI will automatically split your dataset into a training set (to train the model) and a test set (to evaluate the model).


Training Set: Typically, 70% of the data will be used for training the model.

Testing Set: The remaining 30% of the data will be used to validate the accuracy of the model.


b) Model Training: Power BI uses built-in machine learning algorithms to automatically train the model using the training dataset. This could involve algorithms like:


Logistic Regression (common for binary classification)

Decision Trees

Random Forests (if applicable)



6. Apply the Model to Make Predictions


Once your model is trained and the performance is satisfactory, you can use it to make predictions on new or unseen data.


The model will output a PredictedChurn column that represents the model's prediction of whether a customer will churn (1) or not (0).


You can also apply thresholds to the probability to categorize customers:


High Churn Risk: Customers with a churn probability above 0.7.

Medium Churn Risk: Customers with a churn probability between 0.4 and 0.7.

Low Churn Risk: Customers with a churn probability below 0.4.



7. Visualize the Results


After applying the model, you can return to Power BI Desktop to visualize the predictions:


a) Churn Distribution: Use a bar chart or pie chart to show the distribution of customers who are predicted to churn and those who are not.


b) Customer Segments: Use conditional formatting or a scatter plot to visualize which customers are at high, medium, or low churn risk.


c) Performance Metrics: Use a KPI visual to show key metrics like accuracy or F1 Score from the model evaluation."    





DevOps      

      

DevOps is a software development practice that combines software development and IT operations. It uses a combination of practices, tools, and a cultural philosophy to improve the speed and reliability of software delivery      

      

Integrate Power BI data with DevOps      

      

Power BI can help DevOps teams monitor code commit frequency, build success/failure trends, and deployment performance by integrating with tools like Azure DevOps, GitHub, and Jenkins. This helps DevOps teams identify unstable builds, optimize pipelines, and improve CI/CD reliability.      

      

"Monitoring Build Success/Failure Trends

"      

"In this task, we track the success and failure rates of builds using data from Jenkins or Azure DevOps Pipelines.


1. Connect Power BI to Azure DevOps


Click Home > Get Data > More > Online Services > Select 'Azure DevOps (Beta)' and click Connect > Sign in with your Azure DevOps account

> Load 


2. Extract key data:


Build start & end time

Build status (Success/Failure)

Duration of builds


Sample table:













3. Create Key Metrics Using DAX:














4. Set Up Alerts & Automation


     Publish the report to Power BI Service > Go to the Dashboard > Select KPI Card (Failure Rate) > Click More Options > Manage Alerts > Set a rule: Alert me if Failure Rate > 50%.



"      

      

      

"Tracking Cloud Costs

"      

"Power BI can pull billing data from cloud providers using their APIs or export services.


1.Connect Power BI to Azure DevOps


Click Home > Get Data > More > Online Services > Select Azure DevOps (Beta) and click Connect > Sign in with your Azure DevOps account > Select the Project and Analytics View that contains build data > Click Load to import the data into Power BI.




2. Extract cost data per service, region, and subscription.


Sample table: 














3. Create Cost Metrics in Power BI Using DAX


Sample DAX measure:


CostPerUsageHour = DIVIDE(SUM(CloudCosts[Cost ($)]), SUM(CloudCosts[Usage Hours]))



4. Create Power BI Visualizations


    Create KPI Cards for Total Cost & Cost Per Hour


 5. Create an Alert for High Cloud Spend


       Publish to Power BI Service > Go to Dashboard > Select KPI (Total Cost) > Click More Options > Manage Alerts > Set an alert for Cost > $5000."      

Comments

Popular posts from this blog

Rethinking Agentic AI

 # Rethinking AI Agents: Why Intelligence Beats Integration Every Time ## More Tools Won't Save a Thoughtless Agent Every week, another development team ships an AI agent loaded with integrations — web search, vector databases, code runners, calendar hooks, payment gateways. The demo looks impressive. The stakeholders nod. Then the agent hits its first real user in a messy, unpredictable situation, and the cracks appear fast. The uncomfortable truth? Most AI agents fail not because they lack access to information, but because nobody taught them how to *think* about it. The industry has quietly developed a bad habit: treating agent-building like a hardware upgrade. Slow processor? Add RAM. Agent underperforming? Add tools. This logic sounds reasonable until you realize that intelligence doesn't accumulate through connection counts. A library card doesn't make someone well-read. --- ## Competence Isn't a Plugin Here's a useful mental test. Imagine hiring someone for a...

Why Every BI Professional Needs to Learn Agentic AI in 2026

Meta Description:  Agentic AI is transforming business intelligence. Learn why BI professionals must embrace autonomous AI agents to stay relevant — with practical examples, skills to build, and a BI Lead's honest perspective on the shift. Tags:   Agentic AI  ·  Business Intelligence  ·  Power BI  ·  AI Agents  ·  Data Analytics  ·  Future of BI  ·  Career Growth Let me be blunt: if you're a BI professional in 2025 and you haven't started paying attention to agentic AI, you're already behind. I'm not saying that to scare you. I'm saying it because I've spent over a decade building dashboards, tuning SQL queries, and wrangling Power BI data models — and nothing in my career has shifted the landscape as fast as agentic AI. Not self-service analytics. Not cloud migration. Not even the first wave of AI/ML. This is different. And here's why. What Exactly Is Agentic AI? Forget the chatbot hype for a second. Agentic AI refer...

Quantum Computing

  Quantum computing is a new kind of computing that uses the laws of quantum physics to solve certain problems much faster than classical computers.  It doesn’t replace your laptop but can tackle very complex simulations, optimization, and cryptography‑style tasks that are intractable for ordinary machines.  *** ### What is quantum computing? Quantum computing is a computing paradigm that uses quantum‑mechanical phenomena—like superposition, entanglement, and interference—to represent and process information in new ways. Instead of classical bits (0 or 1), quantum computers use **qubits**, which can be in a mix of 0 and 1 at the same time, enabling parallel computation.  *** ### Classical bits vs. qubits - A **classical bit** is either 0 or 1; operations are deterministic and sequential.  - A **qubit** can be 0, 1, or any quantum “blend” of both, written as $$ \alpha|0\rangle + \beta|1\rangle $$, where $$ \alpha $$ and $$ \beta $$ are complex numbers capturing p...