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Transition to AI/ML with a Proven Program
From Python to advanced ML, taught live by MAANG+ experts, with support for your career switch.
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Standout Features of the AI/ML Program

Live Training Sessions
36 weeks of engaging, instructor-led sessions taught by seasoned MAANG+ experts.
Interview Preparation
17 weeks of focused prep to sharpen your skills and crack top AI/ML interviews.
Mock Interviews
Practice for the real thing in up to 20 mock interviews with hiring managers, tech leads and recruiters.
Capstone Projects
2 hands-on, industry-grade projects that showcase your practical AI knowledge.
AI-Powered Study Plan
A smart study plan that guides you, with a built-in coding workspace.
Extended Support
6 months of support after the program, with mentorship, doubt clearing and mock interviews.
Lifetime LMS Access
Unlimited access to all course content and recorded sessions, to review any time.
Placement Support
Help with your resume and LinkedIn profile, plus expert career coaching for the roles you want.
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Curriculum for Your AI/ML Transition
Ten modules: 36 weeks from Python and SQL to LLMs, agents and MLOps, then 5 weeks of DSA.
Python, SQL & Statistics (8 Weeks)
Build strong foundations in Python programming, SQL querying and key statistical concepts. Learn to write clean code, work with data structures and apply statistics to data analysis.
Week 1: Python Basics & Programming Logic
1.Python setup and IDEs
Installing Python and setting up Anaconda
Using Jupyter, VS Code, or PyCharm
2.Basic syntax and indentation
Code structure and whitespace importance
3.Variables and data types
Integer, float, string, boolean
Type checking with type()
4.Type casting and conversions
Using int(), float(), str()
5.Basic operators
Arithmetic: +, -, *, /, %, //, **
Comparison: ==, !=, >, <, >=, <=
Logical: and, or, not
6.Conditional statements
Simple if
if-else, elif
Nested conditions
Week 2: Loops & Functions
1.for and while loops
Syntax and flow control
Looping over ranges, lists, strings
2.Loop control
break, continue, pass
3.Function definition and syntax
def keyword, indentation, naming
4.Parameters and return values
Positional and keyword arguments
5.Lambda functions
Anonymous functions
When and how to use
6.Recursion
Concept and examples
Base and recursive cases
Week 3: Python Data Structures Deep Dive
1.Lists
Creation, indexing, slicing
Methods: append, extend, insert, remove
2.Tuples
Immutability and packing/unpacking
3.Sets
Unique values, operations: union, intersection
4.Dictionaries
Key-value access, get(), items(), values()
5.List comprehensions
Syntax and performance benefits
6.Iteration tools
enumerate(), zip(), map(), filter()
Week 4: File Handling, Modules & Error Handling
1.File I/O
Reading and writing text files
Working with CSV using csv module
Reading JSON using json module
2.Working with OS and paths
os, pathlib
3.Importing modules
Standard libraries: math, datetime, random
Installing third-party packages
4.Custom modules
Creating and importing user-defined modules
5.Error types
Syntax vs. runtime errors
6.Try-except blocks
Handling exceptions gracefully
7.Finally, raise, and custom exceptions
Week 5: SQL for Data Science – Part 1
1.Relational database concepts
Tables, rows, columns, keys
2.SELECT queries
Syntax, selecting multiple columns
3.Filtering with WHERE
Operators: =, >, <, BETWEEN, IN, LIKE
4.Sorting with ORDER BY
ASC, DESC
5.Grouping with GROUP BY and HAVING
Aggregate functions: COUNT, SUM, AVG, MIN, MAX
Week 6: SQL: Joins, Subqueries, Window Functions – Part 2
1.Joins
INNER JOIN
LEFT, RIGHT, FULL OUTER JOIN
2.Subqueries
Inline subqueries
Correlated subqueries
3.Window functions
ROW_NUMBER, RANK, DENSE_RANK
LAG, LEAD for time-based analytics
4.Indexing and optimization
Primary vs. secondary indexes
Query performance tips
Week 7: Descriptive Statistics & Probability
1.Measures of central tendency
Mean, median, mode
2.Measures of dispersion
Range, variance, standard deviation, IQR
3.Probability basics
Sample space, events
Probability rules
4.Conditional probability
Bayes’ Theorem
5.Law of Large Numbers
6.Central Limit Theorem
Week 8: Distributions, Hypothesis Testing & Inference
1.Probability distributions
Normal, Binomial, Poisson
2.Sampling techniques
Random, stratified, systematic
3.Hypothesis testing
Null vs. alternative hypothesis
4.Statistical tests
t-tests, z-tests
ANOVA, chi-square
5.Significance and p-values
6.Confidence intervals
Data Processing (3 Weeks)
Master NumPy and Pandas for data manipulation. Learn to clean, transform and prepare real-world data for deeper analysis and machine learning.
Week 9: NumPy & Pandas
1.NumPy arrays
Creating, indexing, reshaping
2.Vectorized operations
Broadcasting, element-wise ops
3.Pandas DataFrames
Creating from dicts, CSV
4.Series vs. DataFrames
5.Indexing and filtering
loc, iloc, boolean indexing
6.Handling missing values
7.Aggregations with groupby
8.Merging and concatenating
Week 10: EDA & Data Cleaning
1.Handling missing values
Drop, fill, interpolation
2.Outlier detection
Boxplots, Z-scores, IQR
3.Data type conversion
astype()
4.Visual exploration
histograms, boxplots, pairplots
5.Correlation matrix
Heatmaps
6.Value counts and frequencies
Week 11: Feature Engineering & Data Preprocessing
1.Data imputation
Mean/median/mode imputation
KNN imputer, iterative imputer
2.Feature scaling
MinMaxScaler, StandardScaler, RobustScaler
3.Encoding categorical variables
One-Hot Encoding, Label Encoding, Ordinal Encoding
4.Feature selection
Variance Threshold, SelectKBest
Recursive Feature Elimination (RFE)
5.Dimensionality Reduction
Principal Component Analysis (PCA)
Interpretation of principal components
Core ML: Supervised & Unsupervised (4 Weeks)
Understand the fundamentals of supervised learning, model building and evaluation. Gain hands-on experience with regression, classification and model tuning.
Week 12: Intro to ML + Evaluation Metrics
ML lifecycle and workflow
Types of learning: supervised, unsupervised, reinforcement
Train/test/validation split
Overfitting vs. underfitting
1.Bias-variance trade-off
Classification metrics
2.Accuracy, Precision, Recall, F1 Score
Regression metrics
MSE, RMSE, MAE, R-squared
ROC Curve and AUC
Confusion matrix
Week 13: Regression Models
Linear regression
1.Line fitting, coefficients, intercept
2.R-squared and adjusted R-squared
Polynomial regression
1.Curve fitting, overfitting prevention
Regularized regression
1.Ridge regression (L2)
2.Lasso regression (L1)
3.ElasticNet (combined L1 and L2)
Multicollinearity
2.Variance Inflation Factor (VIF)
Residual diagnostics
1.Plotting and interpretation
Week 14: Classification Models
1.Logistic Regression
Odds, log-odds, sigmoid function
2.Decision Trees
Gini impurity, entropy, information gain
Pruning, depth control
3.Random Forest
Ensemble of trees, bagging technique
Feature importance extraction
4.Support Vector Machine (SVM)
Linear and kernel-based SVM
Hyperplane, margin, slack variable
5.Model interpretability
Confusion matrix and classification report
Week 15: Hyperparameter Tuning & Cross-validation
1.Cross-validation
Importance and types (Holdout vs. K-Fold)
2.K-Fold, StratifiedKFold
How K-Fold splits data
Preserving class ratios with StratifiedKFold
3.GridSearchCV
Defining parameter grid
Finding the best parameter set
4.RandomizedSearchCV
Sampling parameters randomly
Speed vs. coverage trade-off
5.Imbalanced Data Techniques
SMOTE for oversampling
Undersampling basics
6.Final Model Selection & Evaluation
Compare models using CV scores
Select based on accuracy, F1, or AUC
Unsupervised Learning & Recommenders (3 Weeks)
Explore clustering, anomaly detection and recommendation systems. Learn to uncover hidden patterns and personalize user experiences with data.
Week 16: Clustering Techniques
1.K-Means
Initialization, choosing K
Elbow method and Silhouette score
2.Hierarchical clustering
Agglomerative, divisive methods
Dendrogram interpretation
3.DBSCAN
Density-based clustering
Noise and outlier detection
Week 17: Dimensionality Reduction & Anomaly Detection
1.Dimensionality Reduction
PCA (Principal Component Analysis)
Variance explanation
Scree plots
LDA (Linear Discriminant Analysis)
Supervised dimensionality reduction
t-SNE (t-distributed Stochastic Neighbor Embedding)
Nonlinear dimensionality reduction for visualization
UMAP (Uniform Manifold Approximation and Projection)
Manifold learning and low-dimensional embedding
2.Anomaly Detection
Statistical Methods
Z-score method
Interquartile Range (IQR)
Isolation Forest
Anomaly scoring using random partitioning trees
One-Class SVM
Support vector boundary-based anomaly detection
Application Scenarios
Fraud detection
Network security
Quality control in manufacturing
Week 18: Recommender Systems
1.Types of Recommender Systems:
Content-based filtering
Collaborative filtering (user-based, item-based)
2.User-Item Matrix Representations:
Cosine similarity
Pearson correlation
3.Matrix Factorization Techniques:
Singular Value Decomposition (SVD)
Non-negative Matrix Factorization (NMF)
4.Association Rule Mining:
Apriori algorithm
FP-Growth algorithm
5.Evaluation Metrics:
RMSE (Root Mean Squared Error)
Precision@K
Recall@K
Deep Learning (9 Weeks)
Dive into neural networks and advanced architectures like CNNs and GANs. Apply deep learning to images, text and generative tasks through real-world projects.
Week 19: Neural Networks & MLPs
1.Perceptron and MLP
2.Forward and Backpropagation
3.Loss functions
MSE, Cross-Entropy
4.Optimizers
SGD, Adam, RMSprop
5.Activation Functions
ReLU, Sigmoid, Tanh, Softmax
6.Regularization
Dropout, BatchNorm
Week 20: CNNs
1.Convolution operation
2.Filters and feature maps
3.Pooling layers
4.CNN architectures
LeNet, VGG, ResNet
5.Transfer learning
Fine-tuning pre-trained models
6.Image classification project
Week 21: Generative Deep Learning Models
1.Autoencoders (AEs)
Encoder-decoder structure
Bottleneck representation
Applications: Denoising, dimensionality reduction
2.Variational Autoencoders (VAEs)
Probabilistic latent space
KL divergence and reconstruction loss
Sampling with reparameterization trick
3.Generative Adversarial Networks (GANs)
Generator and discriminator roles
Loss functions and training dynamics
Common issues: mode collapse, instability
4.U-Net Architecture
Encoder-decoder with skip connections
Applications in biomedical and satellite image segmentation
Dice coefficient and IoU evaluation
5.Diffusion Models
Forward (noise) and reverse (denoise) processes
Intuition behind denoising diffusion probabilistic models (DDPMs)
Recent advances: DALL·E 2, Stable Diffusion
Week 22: Foundations of Text-to-Image Models & Vision-Language Alignment
1.Introduction to Text-to-Image Models
Evolution from GANs to diffusion models
Applications in design, marketing, and synthetic data generation
2.CLIP (Contrastive Language–Image Pre-training)
Contrastive learning between images and text
Architecture and embedding space alignment
CLIP’s role in guiding image generation
3.DALL·E & DALL·E 2
Overview of the transformer-based architecture
Text-to-image and inpainting use cases
Concept of zero-shot and few-shot generation
Week 23: Diffusion-Based Architectures, Prompt Engineering & Practical Implementation
1.Imagen (Google)
T5-based text encoding and cascaded diffusion
High-fidelity generation and FID score performance
Human preference comparisons with DALL·E
2.Stable Diffusion
Latent diffusion models (LDMs)
UNet, Variational Autoencoders, CLIP conditioning
Architecture breakdown and hands-on usage
3.Prompt Engineering
Crafting prompts for specific image outcomes
Controlling prompt weight and image style
Multi-modal prompts and stylistic augmentation
Week 24: NLP Pipeline, Preprocessing & Text Representation
1.NLP Pipeline Overview
Stages: text preprocessing → feature extraction → modeling
Applications: chatbots, search engines, auto-summarization
2.Text Preprocessing
Word and sentence tokenization
Stopword removal techniques
Stemming (Porter) and Lemmatization (WordNet)
3.Text Representation Techniques
Bag-of-Words (BoW)
TF-IDF: concept, formula, and practical use
Introduction to embeddings (Word2Vec, GloVe — conceptual)
Week 25: Core NLP Tasks, Traditional Models & Evaluation
1.Basic NLP Tasks
Sentiment Analysis
Text Classification using labeled datasets
Named Entity Recognition (NER) overview
2.Traditional Models for NLP
Naive Bayes for spam/sentiment classification
Logistic Regression for binary/multi-class classification
SVM: kernel-based text classification
3.Evaluation Metrics for NLP Models
Confusion matrix interpretation
Precision, Recall, F1-score for unbalanced datasets
Macro vs. micro averaging in multi-class problems
Week 26: Word Embeddings & Foundations of Neural NLP
1.Word Embeddings
Word2Vec, GloVe, nn.Embedding
Concept of similarity in vector space
Static vs. contextual embeddings
Limitations: context-agnostic, rare/unknown words
2.Feed-Forward Networks for Text
Using TF-IDF or averaged embeddings as inputs
Basic dense architectures for classification/regression
Limitations: no order or syntax awareness
3.Recurrent Neural Networks (RNNs)
Sequence modeling using hidden states
Maintaining memory across steps
Limitations: vanishing gradients, parallelization issues
Week 27: LSTM, GRU & Sequence-Based NLP Applications
1.Long Short-Term Memory Networks (LSTMs)
Cell states, forget/input/output gates
Handling long-term dependencies
Bidirectional LSTM for richer context
Limitations: slower training, sequential processing
2.Gated Recurrent Units (GRUs)
Update and reset gates
Parameter efficiency and faster convergence
Performance trade-offs with LSTM
3.NLP Applications Using RNN-Based Models
Sentiment classification with LSTM or GRU
Named Entity Recognition with BiLSTM/GRU
Character-level RNNs for text generation
LLMs & Generative AI (4 Weeks)
Explore how large language models work and how to design effective prompts. Build practical applications with HuggingFace, RAG systems and vector stores.
Week 28: Transformers & LLM Foundations
1.Transformers & Attention Mechanism
Attention mechanism
Scaled dot-product attention
Self-attention vs. cross-attention
Multi-head attention
Positional encoding
Transformer architecture: Encoder-decoder structure
2.LLMs & HuggingFace
Transformer models overview: GPT, BERT, T5, etc.
Tokenization techniques: WordPiece, Byte-Pair Encoding
Embeddings: static vs. contextual embeddings
HuggingFace basics:
1.Pipelines for NLP tasks
2.Model hub exploration
Fine-tuning for sentiment analysis and classification
Week 29: Prompt Engineering Basics
1.Foundations of Prompting & Design
Introduction to Prompt Engineering
1.Prompts as a way to program LLMs
2.Use cases: chatbots, summarization, classification, code generation
2.Prompting Strategies
Zero-shot prompting: direct queries without examples
Few-shot prompting: adding labeled examples
Chain-of-thought prompting: guiding step-by-step reasoning
3.Prompt Design Best Practices
Writing clear and unambiguous instructions
Setting context: tone, persona, formatting
Output constraints: length, style, structure
Reducing hallucinations and ambiguity
Week 30: Prompt Chaining, Tool Augmentation & RAG Foundations
1.Prompt Chaining & Structured Workflows
Sequential and modular task execution
Multi-step reasoning, report generation, agents
2.Tool-Augmented Prompting
LLMs calling tools or APIs using function-calling/plugins
LangChain/AutoGPT pipelines with dynamic prompt generation
Incorporating retrieved context using vector stores (RAG)
3.Debugging and Evaluating Prompts
Identifying vague prompts vs. precise prompts
Tuning temperature, max tokens, system/user role formatting
Performing A/B testing with prompt phrasing and sampling
4.Why RAG?
Hallucination problems in LLMs
Role of retrieval in grounding LLM responses
External knowledge sources (FAQs, PDFs, sites)
5.RAG Architecture & Workflow
Retriever-Generator architecture
End-to-end pipeline: User Query → Embed → Retrieve → Prompt → LLM Output
6.Document Ingestion & Chunking
Loading data from multiple sources (PDFs, Notion, HTML)
Recursive text chunking and overlapping windows
Metadata tagging: title, source, URL, date
7.Embedding & Vector Stores
Generating embeddings: OpenAI, HuggingFace, Cohere
Storing and querying using FAISS or Chroma
Cosine similarity and other distance metrics
Week 31: Prompt Integration, RAG System Design & Deployment
1.Prompt Construction for RAG
Techniques to inject retrieved chunks into LLM prompts
Formatting strategies: summaries, bullet points, citations
Handling token limits in long contexts
2.Tools & Libraries for RAG
LangChain: Chains, Retrievers, Memory, PromptTemplates
OpenAI/HuggingFace RAG pipelines
Optional: LLamaIndex for lightweight use cases
3.UI Layer: Prototyping a RAG Assistant
Build a Streamlit/Gradio app with RAG backend
Allow real-time querying with source-grounded answers
Display retrieved documents with model response
Agentic AI & Automation (2 Weeks)
Discover how autonomous agents use tools and memory to complete tasks. Build multi-step workflows with LangChain and explore real-world automation use cases.
Week 32: Agents & LangChain Workflows
1.What is an Agent?
Definition and real-world analogy of an autonomous AI agent
Difference between tools, chains, and agents in LangChain
2.LangChain Architecture
Key components: Prompts, Models, Memory, Chains, Tools
How LangChain manages conversational context
3.Tools, Chains, and Memory
Tool calling with APIs (e.g., calculator, web search)
Memory management (Buffer, Summary, EntityMemory)
Creating reusable chains for tasks
4.Multi-step Reasoning
Agent workflows that solve complex problems
Using ReAct (Reason + Act) pattern in LangChain
5.Planning and Tool Usage
How agents decide which tools to use and when
Example: Step-by-step decision making with intermediate steps
Week 33: AutoGPT & Task Automation
1.Intro to AutoGPT
Overview of autonomous AI loops
2.Prompt Chaining and Formatting
Sequential prompt design
Intermediate result reuse
3.Workflow Automation
Task breakdown
Self-directed task loops and memory integration
4.Use Cases
Marketing automation
Data analysis
Report generation
Automated data pipeline orchestration
Reinforcement Learning (1 Week)
Understand how agents learn through trial and error using rewards. Learn Q-learning and deep reinforcement learning, with applications in games and robotics.
Week 34: Reinforcement Learning (Fundamentals & Deep RL)
RL Fundamentals
MDP formulation: State, Action, Reward, Policy
Exploration vs. exploitation
ε-greedy strategy
Q-Learning and Q-table updates
Deep Reinforcement Learning
1.Deep Q Networks (DQN)
Experience replay
Target network
2.Actor-Critic Models
Advantage Actor Critic (A2C)
Applications
Games
Robotics
Trading
MLOps & Deployment (2 Weeks)
Learn to track experiments, version models and monitor ML systems. Get hands-on with APIs, Docker and cloud deployment to put your models into production.
Week 35: MLOps Fundamentals
1.ML system lifecycle overview
2.CI/CD principles for ML
3.Experiment tracking
4.MLflow basics: tracking, models, UI
4.Model versioning
5.Registering and managing models
6.Model and data drift
Monitoring strategies
Week 36: Model Deployment
1.Flask & FastAPI
Creating APIs for models
Route setup and JSON responses
2.Serialization
Pickle, Joblib for saving models
3.Docker
Containers, Dockerfile, docker-compose
4.Cloud deployment basics
AWS S3, EC2, Lambda
GCP: Cloud Run, AI Platform
5.Monitoring deployed models
Logging and alerting basics
Data Structures & Algorithms (DSA) (5 Weeks)
Master core data structures and algorithm paradigms through efficient problem-solving: sorting, recursion, backtracking, trees, graphs and dynamic programming.
Week 37: Sorting & Algorithm Foundations
Introduction to sorting algorithms
Basics of asymptotic analysis (Big O, Theta, Omega)
Worst-case and average-case time complexity
Sorting algorithms: Bubble, Selection, Insertion, Merge, Quick, Heap
Algorithm paradigms: Divide & Conquer, Decrease & Conquer
Presorting and its applications
Merge sort on linked lists, 3-way quicksort
Week 38: Recursion & Backtracking
Recursion basics: base case, recursive case
Recursive mathematical problems (factorial, Fibonacci)
Combinatorial enumeration (nCr, permutations)
Exhaustive enumeration with backtracking
Letter case permutations, combinations, subsets
Sudoku solver, N-Queens, Rat in a Maze
Week 39: Trees & Hashing
Binary Search Trees (BST): insert, search, min/max
Dictionaries & hash tables: collision resolution, load factor
Tree traversals: Inorder, Preorder, Postorder
Level order traversal (BFS), DFS on trees
BST problems: Diameter, Count Univalue Subtrees, Lowest Common Ancestor
Tree construction from traversal arrays
Week 40: Graphs & Connectivity
Graph types: directed, undirected, weighted
Representation: adjacency list, matrix, edge list
BFS and DFS traversal
7 Bridges of Königsberg and Eulerian paths
Stack-based DFS and recursion-based DFS
Finding connected components
Graph problems: bipartite check, cycle detection, topological sort
Week 41: Dynamic Programming (DP)
Principles of DP: overlapping subproblems, optimal substructure
Top-down (memoization) vs bottom-up (tabulation)
Classic problems: Climbing Stairs, Subsets of size k
DP on grids: Unique paths, obstacles, path sums
Coin Change, Edit Distance, Word Break, Equal Subset Partition
System Design (3 Weeks)
Build a strong foundation in system design to approach open-ended design interviews with confidence: distributed systems, databases, caching and cloud-native trade-offs.
Client-server model basics
Web server architecture and request lifecycle
Cryptographic hash functions and hashing index
CAP theorem, caching strategies, storage engines
Load balancing strategies: round-robin, consistent hashing
Database replication and failover mechanisms
Network protocols (TCP, HTTP/2, HTTPS)
Week 43: Batch Processing Systems Topics Covered:
Inverted Index & search engine architecture
K-way merge sort for external sorting
Distributed file systems (HDFS, S3)
MapReduce paradigm and Hadoop architecture
Data flow vs control flow in batch jobs
Graph processors for analytics (e.g., Pregel)
Designing recommendation systems and typeahead suggestions
Week 44: Stream Processing & Real-Time Systems Topics Covered:
Event-driven architectures and real-time analytics
Application performance monitoring tools (APM)
Architecture for live video broadcasting (YouTube Live, Twitch)
Real-time map rendering (e.g., Google Maps)
Windowing and checkpointing in stream processing (Apache Flink, Kafka Streams)
Trade-offs in stream vs. batch processing
AI/ML Domain (7 Weeks)
Build, evaluate and deploy machine learning models with Python and SQL, then master deep learning, AI system architecture and frameworks like transformers and LangChain.
Week 45: Python, Data Handling & SQL Review
Python syntax, control flow, data structures
List/dict/set comprehensions, lambda/map/filter
NumPy and Pandas for transformations, filtering, aggregation
SQL: Joins, subqueries, aggregations, window functions
Practice: Python/SQL Leetcode problems and data analysis mini tasks
Week 46: Machine Learning Fundamentals & Evaluation
ML workflow: data prep, modeling, evaluation
Overfitting/underfitting, bias-variance trade-off
Classification vs regression, label encoding, scaling
Metrics: accuracy, precision, recall, F1, ROC-AUC, RMSE
Practice: Run basic classification/regression models using scikit-learn
Week 47: Feature Engineering, Model Tuning & Explainability
Feature engineering: imputation, encoding, PCA, RFE
Cross-validation strategies: K-Fold, StratifiedKFold
Hyperparameter tuning: GridSearchCV, RandomSearchCV
Explainability tools: SHAP, LIME
Practice: Evaluate different ML models using a real dataset
Week 48: Advanced ML – Trees, Ensembles & Imbalanced Data
Decision Trees, Random Forests, SVM
Boosting algorithms: XGBoost, LightGBM, CatBoost
Class imbalance: SMOTE, ADASYN, ensemble tuning
Model comparison using cross-validation + metrics
Practice: Case study — build and evaluate a fraud detection model
Week 49: Deep Learning, Transformers & Generative AI
Neural nets: MLPs, CNNs, RNNs — architecture & use cases
Transformers: attention, encoder-decoder, self-attention
LLMs: GPT vs BERT, tokenization, fine-tuning with HuggingFace
RAG architecture with FAISS/Chroma vector DBs
Practice: Build a basic chatbot or classification model using a pre-trained LLM
Week 50: Agentic AI & LangChain Workflows
LangChain architecture: prompts, chains, tools, agents
AutoGPT basics and planning tools
Integrating tools with memory and context
LangChain-based multi-step agent projects
Practice: Implement a use-case like automated research assistant or data pipeline explainer
Week 51: ML System Design & AI Architecture
ML system design principles: modularity, scalability, latency
Components: data ingestion, processing, feature store, model registry, deployment, monitoring
Deployment patterns: batch vs. real-time, CI/CD, containerization (Docker)
LLM & RAG system architecture: vector store, retriever, generator
Practice: Design prompts like:
"Build a recommendation system for an e-commerce platform"
"Design a pipeline to retrain a fraud detection model every week"
"How would you productionize a ChatGPT-like solution for a bank?"
Testimonials from Career Switchers
What learners from analytics, software, QA and engineering backgrounds say about the program.
From Numbers to Neural Networks!
Honestly before taking this program I doubted if I could ever switch from analytics to machine learning but the program made me realize my potential and helped me transition into AI and ML. The way the trainers explain concepts and the projects we worked on helped me alot. The mentorship kept me going when I felt stuck, and I’m now working as an ML Engineer!
This Program Was a Turning Point
I spent numerous years trapped in my BI career and wanted to grow. This program provided insights that went beyond acquiring new technical abilities because it restructured how I approached things. Instead of traditional teaching methods the mentors exposed students to genuine field experience. I’ve never felt more confident in my skills.
Finally, a Program That Gets It Right
The course teaching methods stood out from all other courses I had taken. It was real interaction, real assignments, and real feedback from the FAANG experts. Every session created a new wave of confidence within me. I walked into interviews knowing exactly what to expect and how to handle it smartly.
I Was Interview-Ready Way Sooner Than I Expected
I didn’t come from a strong coding background, but the way this program breaks things down was a game-changer. The mock interviews, feedback, and one-on-one sessions made all the difference. I finally cracked interviews that had once felt out of reach.
A Complete Shift—And It Was Worth It
Transitioning from engineering to AI proved difficult, but I found the perfect roadmap and training here. The instructors were full of knowledge, interactive and understood what beginners need. They focused on clarity and delivered their content in plain language instead of technical terms, so it’s easy for beginners to understand. And now I’m doing machine learning work I used to only read about.

Book a Free 15-Minute Call with a Career Advisor
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What you will learn
Six skill sets across the ML lifecycle, from Python and data to deep learning, LLMs and MLOps.
Programming & Dev Environments
Hands-on Python 3 for ML, DL, LLMs, and scripting using Jupyter, Colab, VS Code, and the terminal.
Data Handling, Visualization & SQL
Clean and analyze data with Pandas and NumPy, process images with OpenCV, and create visuals with Matplotlib, Seaborn and Plotly. Query SQLite or PostgreSQL, and manage databases in DB Browser and pgAdmin.
Statistics & Machine Learning
Apply SciPy for statistical tests and optimization. Build models with scikit-learn, XGBoost, LightGBM and CatBoost, handle imbalance with imbalanced-learn, and explain predictions with SHAP and LIME.
Deep Learning
Develop models with TensorFlow and Keras. Use PyTorch for advanced projects and for fine-tuning models like ResNet.
NLP, Transformers & LLMs
Work with Hugging Face, BERT, GPT and custom tokenizers. Build retrieval systems using FAISS and ChromaDB.
MLOps, Deployment & Automation
Track models with MLflow and package them with Docker. Deploy with Flask or FastAPI, test with Postman, and manage code with Git and GitHub.
Eligibility
Prerequisites for the AI/ML Career Transition Program
No ML background is needed, and basic coding in any language is a plus but not mandatory.
A STEM or tech background is a good fit: software engineers, data scientists, MLOps, DevOps, backend and cloud roles, and MS or PhD researchers.
Classes run on Sundays, 9 AM to 1 PM PST and Thursdays, 6 to 8 PM PST, with doubt clearing on Tuesdays, 6 to 8 PM PST.

This program is for you
For developers, IT pros and anyone from tech or STEM aiming for roles like AI, Computer Vision or MLOps Engineer.
Software Developers Ready for AI/ML
IT Pros Craving AI Innovation
Anyone from Tech Background
Anyone from STEM Background
Data Scientists Scaling Up ML Skills
Earn the AI/ML Credential
Build industry-relevant AI skills
Learn advanced machine learning, deep learning and large language models through hands-on practice.
Gain credibility with a respected certificate
Receive a shareable, verifiable credential that validates your skill in building intelligent, scalable systems.
Step into high-demand AI roles
Qualify for roles like ML Engineer, Data Scientist, AI Consultant and NLP Engineer, with skills in modeling and deployment.
Certification


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The week-by-week curriculum, the schedule and the fee, as a PDF you can read offline or forward to whoever signs it off.
Learn the Core AI Tools of the ML Lifecycle
Knowing algorithms is not enough. Employers want people who can use real tools to build models, deploy pipelines and manage ML systems at scale. That is why the program trains you, hands-on, on the most in-demand tools, from data wrangling to deployment.

An Award Winning End-to-End Talent Solutions
Our cutting-edge platform empowers businesses to strategically hire, develop, and retain top talent.
Industry-standard tools
Gain proficiency in industry-standard AI and ML tools.
Model deployment
Learn to manage models and deploy them into production.
Best practices
Empower your team with best practices and the latest tools.
In-role productivity
Boost in-role productivity with new skills.
Frequently Asked Questions
01What is the Interview Process Like for Machine Learning Roles at MAANG+ and Tier-1 Companies?
The Machine Learning interview process at top tech companies generally includes multiple stages designed to assess your technical, analytical, and behavioral fit. Here's a breakdown of what to expect: 1. Initial Technical Screening Format: Phone or virtual interview
Focus Areas:
- Basic understanding of Machine Learning concepts
- Discussion of past ML projects
- Coding problems (often LeetCode medium to hard level)
2. Core Technical Rounds (On-site or Virtual – 3 to 8 Rounds)
a. Coding Rounds (1–2 rounds)
- Data Structures and Algorithms
- ML-specific coding tasks
- In-depth ML project discussions
b. System Design Rounds (1–2 rounds)
- Scalable software system design
- ML system design (e.g., building a recommendation engine)
- Note: For candidates with <3 years of experience, ML system design may be replaced with an additional ML fundamental round.
c. ML Technical Rounds (1–3 rounds)
- Breadth and depth of ML understanding
- Topics include:
- Linear/Logistic Regression
- Decision Trees, SVM, Neural Networks
- Optimization techniques (e.g., Gradient Descent)
- Loss functions (e.g., Cross-Entropy Loss)
- Tools and deployment pipelines
3. Behavioral Round
- Experience and project-based discussion
- Open-ended questions to assess cultural and team fit
Summary
Candidates should prepare for:
- Strong coding and DSA skills
- A solid grasp of ML algorithms and system-level thinking
- The ability to explain and discuss past ML projects
- Clear communication and alignment with company values during behavioral interviews
01What are the most asked interview questions for Machine Learning roles at top tech companies?
1. Coding & Algorithmic Questions Expect questions that test your data structures, algorithms, and ability to translate ML problems into code.
- Implement a word segmentation algorithm: Given a string without spaces, recover the original sentence using a valid dictionary.
- Given a list of timestamps and user IDs, find the longest active streak for each user.
- Given a binary tree, write a function to return the path with the maximum sum passing through the root.
- Implement K-means clustering using only NumPy (no scikit-learn).
- Write a function to apply a convolution operation on a grayscale image matrix. Extend it with stride and padding options.
- Design a scheduler to assign jobs across machines with varying CPU & RAM capacities.
2. System Design for ML These questions evaluate your ability to build scalable and efficient ML-powered systems.
- Design a movie recommendation engine for an in-flight entertainment system.
- Architect a system for real-time fraud detection for an e-commerce platform.
- Design a scalable ML pipeline to personalize news feed content.
- How would you build a trigger word detection system like “Hey Google”?
- Explain how you’d design an ML feature store and manage feature versioning.
3. Core ML Conceptual Questions These test your understanding of fundamental algorithms, optimization techniques, and practical trade-offs.
- What’s the difference between bias-variance tradeoff and overfitting-underfitting?
- Explain how you’d handle imbalanced datasets in classification problems.
- How does dropout prevent overfitting in neural networks?
- What is the vanishing gradient problem, and how can it be mitigated?
- When should you use precision over recall in a classification task?
- Why might XGBoost outperform logistic regression or SVM on tabular data?
4. ML Tools, Frameworks, and Deployment Companies often assess your familiarity with the real-world tech stack.
- Describe how you’d deploy a model using Docker and Kubernetes.
- What are the pros and cons of using batch inference vs. real-time inference?
- How do you monitor model drift in production?
- Explain the differences between TF Serving, TorchServe, and BentoML.
- What CI/CD practices would you follow for ML systems?
5. Open-ended & Behavioral ML Questions These assess your ability to think holistically, collaborate cross-functionally, and contribute meaningfully to business impact.
- Pick a product you love and describe how you’d improve it using ML.
- How would you design an ML strategy to increase revenue for our business?
- What are your thoughts on improving our current data pipeline?
- How do you define and measure the success of an ML project?
- What’s the most impactful ML project you’ve worked on, and what were your key learnings?
01What is the career path for Machine Learning Engineers?
Machine Learning offers one of the most rewarding and fast-growing career paths in tech. Here’s how your career could evolve — from your first role to advanced leadership positions — along with average annual salaries at top tech companies. 1. ML Engineer / Applied Scientist I (Entry-Level)
Experience: 0–2 years Typical Roles:
- Machine Learning Engineer
- Applied Scientist
- Data Scientist (ML-focused)
Skills Required: Python, data structures & algorithms, basic ML algorithms, supervised/unsupervised learning, model training & evaluation
Average Salary (MAANG+): $130K – $180K base + bonuses + stock 2. ML Engineer II / Research Engineer / Applied Scientist II
Experience: 2–4 years
Typical Roles:
- Mid-level ML Engineer
- Applied Scientist II
- ML Research Engineer
Skills Required: End-to-end ML pipelines, deep learning, production deployment, MLOps, scalable system design
Average Salary (MAANG+): $170K – $250K base + performance bonus + equity 3. Senior ML Engineer / Senior Applied Scientist
Experience: 4–7 years
Typical Roles:
- Senior ML Engineer
- Senior Data Scientist (AI/ML focus)
- Lead Applied Scientist
Skills Required: ML system design, optimization at scale, advanced modeling (transformers, GANs, RL), mentoring juniors, cross-team collaboration
Average Salary (MAANG+): $220K – $350K total comp (can go higher with equity) 4. Staff ML Engineer / Principal Scientist / Tech Lead
Experience: 7–10 years
Typical Roles:
- Staff ML Engineer
- Machine Learning Tech Lead
- Principal Applied Scientist
Skills Required: Technical leadership, architecting ML platforms, model lifecycle management, stakeholder communication, team mentoring
Average Salary (MAANG+): $300K – $500K+ total compensation 5. ML Engineering Manager / Director of ML
Experience: 10+ years
Typical Roles:
- Engineering Manager (ML Team)
- Director / VP of AI/ML
Skills Required: People management, strategic planning, roadmap ownership, aligning ML initiatives with business goals
Average Salary (MAANG+): $400K – $800K+ total compensation






