Course Link : https://aieworks.substack.com/p/announcing-our-new-180-day-ai-and
| Detail | Description |
|---|---|
| Course Name | |
| Description | This |
| Difficulty | Beginner/Intermediate (Starts at a Python beginner level, rapidly accelerates to Intermediate/Expert model development) |
| Duration |
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| Target Audience | Fresh computer Science & Engineering Grads, Software Engineers/Developers, Data Engineers, Technical Analysts, Product Managers, and anyone serious about transitioning into a Data Scientist or ML Engineer role. |
Most introductory courses leave you with scattered theoretical knowledge. This course delivers practical model mastery. We don't just explain Gradient Descent; we code it from scratch. We don't just list the features of
The core project journey is a Comprehensive Model Portfolio including:
-
Fundamental
$\text{ML}$ Algorithms: Coded from scratch (e.g., Linear Regression, Neural Network Perceptron). -
An End-to-End
$\text{ML}$ Pipeline: Featuring advanced$\text{Scikit-learn}$ techniques (Pipelines,$\text{XGBoost}$ ). -
A Computer Vision Classifier: Using
$\text{TensorFlow/Keras}$ for image recognition. -
A Natural Language Processing System: Building a sentiment analyzer with
$\text{RNNs/LSTMs}$ .
-
Hands-on, Every-Day Code Constraint:
$180$ individual, build-along coding lessons. Math and theory are immediately followed by code. -
Intuition over Jargon: We demystify complex math (Linear Algebra, Calculus) by showing exactly how it powers the core algorithms, making
$\text{ML}$ feel like applied mathematics, not black magic. -
Progressive Mastery: The curriculum starts at the basics and logically builds to the
$\text{most}$ advanced$\text{DL}$ concepts—you won't feel lost.
- Zero prior
$\text{AI}/\text{ML}$ experience is fine. - Basic familiarity with a computer and comfort with installing software.
- A strong work ethic and commitment to coding every day.
The course is structured into four modules, moving from coding fundamentals to building complex Deep Learning models.
| Module | Duration | Core Focus | Tangible Outcome/Success Criteria |
|---|---|---|---|
| Module 1 | Days |
Foundational Skills & Data Tools | Proficiency in Python, a working grasp of |
| Module 2 | Days |
Introduction to Machine Learning ( |
Ability to implement, train, and rigorously evaluate core Supervised Learning models (Linear, Logistic, |
| Module 3 | Days |
Unsupervised & Advanced |
Mastery of Clustering and Dimensionality Reduction ( |
| Module 4 | Days |
Deep Learning ( |
Deep understanding of Neural Networks ( |
The curriculum below is based directly on the provided
Focus: Building the essential Python, Math, and Data Science Toolkit.
| Days | Lesson Topics (Hands-on Code) | Key Concept/Insight |
|---|---|---|
| Python Crash Course & Game Project | Control Flow, Functions, Data Structures (Lists, Dicts, Sets). The basic building blocks of any |
|
| Math Essentials: |
Vectors, Matrix Multiplication (the core of Neural Networks), Derivatives, and Gradient Descent (code this optimization step). | |
| Probability & Statistics | Bayes' Theorem, Distributions, |
|
| Python Libraries ( |
Vectorization with |
Learning Objectives (Module 1):
- Fluency in Python for data manipulation and project setup.
- Code the core mechanics of Linear Algebra and Gradient Descent from scratch.
-
Conduct Exploratory Data Analysis (
$\text{EDA}$ ) on a real-world dataset using$\text{Pandas}$ .
Focus: Implementing and evaluating core Supervised Learning algorithms using
| Days | Lesson Topics (Hands-on Code) | Key Concept/Insight |
|---|---|---|
| Core |
Overfitting/Underfitting, |
|
| Regression & Classification Models | Linear Regression ( |
|
| Advanced Classification | Decision Trees ( |
|
| The |
Pipelines (chaining pre-processing and models), Feature Scaling, Feature Engineering, Model Persistence ( |
Learning Objectives (Module 2):
- Implement and interpret the results of all major Supervised Learning algorithms.
-
Master the
$\text{ML}$ workflow, from data pre-processing to model evaluation. -
Build an End-to-End
$\text{ML}$ Pipeline using$\text{Scikit-learn}$ on a public dataset (e.g., Titanic).
Focus: Moving beyond labeled data, finding patterns, and learning from interaction.
| Days | Lesson Topics (Hands-on Code) | Key Concept/Insight |
|---|---|---|
| Unsupervised Learning |
K-Means Clustering ( |
|
|
Q-Learning ( |
||
| Advanced |
Gradient Boosting ( |
Learning Objectives (Module 3):
- Apply Unsupervised techniques for clustering and feature space reduction.
-
Grasp the core concepts of
$\text{Reinforcement}$ $\text{Learning}$ and implement a simple$\text{RL}$ agent. -
Optimize model performance using advanced techniques like
$\text{XGBoost}$ and systematic hyperparameter tuning.
Focus: Building the most powerful modern
| Days | Lesson Topics (Hands-on Code) | Key Concept/Insight |
|---|---|---|
| Neural Networks from Scratch |
|
|
|
|
||
| Computer Vision ( |
Convolutional |
|
| Natural Language Processing ( |
|
Learning Objectives (Module 4):
- Implement the Backpropagation algorithm to train a basic Neural Network.
-
Build and train models using both
$\text{TensorFlow}/\text{Keras}$ and$\text{PyTorch}$ . -
Design and deploy specialized
$\text{DL}$ architectures ($\text{CNNs}$ and$\text{LSTMs}$ ) for Computer Vision and$\text{NLP}$ tasks.
Final Word: By the end of this