Why I Decided to Learn Quantum Computing
Bringing Machine Learning to the Quantum Frontier — A Builder’s Journey
Machine Learning is powerful — but hungry. Quantum may be its next leap.
After two decades building systems, launching products, and solving real-world problems, I’ve always been drawn to technology that transforms — not just incrementally, but fundamentally.
Recently, I decided to take a bold step: 👉 I began studying Quantum Computing, with one clear goal in mind:
To explore how Machine Learning evolves in the quantum era.
What Pulled Me In
We’ve seen Machine Learning revolutionize industries — from personalization to fraud detection. But here’s the catch: ML is compute-intensive. The more data we feed it, the more power it consumes.
That’s when I encountered quantum computing — and what I saw wasn’t just a new architecture. I saw potential:
These questions aren’t theoretical anymore. They’re at the heart of Quantum Machine Learning (QML) — a rapidly emerging field where physics and AI converge.
Why This Matters for Builders and Startups
Here’s why I believe quantum + ML will impact tech faster than we expect:
🎓 How I’m Learning — With Purpose
To go beyond curiosity and into application, I enrolled in the 🔗 6-Month Certification in Quantum Computing & Machine Learning from IIT Delhi, led by Prof. Abhishek Dixit.
This program allows me to:
For someone like me — grounded in building usable, scalable systems — this is a strategic investment in the future of AI.
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🧭 My Learning Roadmap
To keep the journey structured, I’ve broken it into three phases:
This isn’t about academic mastery — it’s about problem-solving at a new level.
🔄 What I’ve Relearned — With a Quantum Twist
To truly grasp QML, I had to revisit a few fundamentals — this time through a quantum lens:
1. Linear Algebra Quantum states live in vector spaces. Every qubit is a vector; every gate is a matrix. 🎥 MIT Linear Algebra series 📝 Focus on transformations, not proofs.
🎲 2. Probability Theory Measurement outcomes are probabilistic, not deterministic.🎥 MIT Probability playlist 📝 Helps make sense of “collapse” and quantum unpredictability.
🔌 3. Classical Logic Gates Understanding AND, OR, NOT builds intuition for quantum gates like Hadamard or CNOT. 🎥 CS50 Logic Gates series 📝 Once you understand classical flow, quantum logic stands out.
🌌 4. Just Enough Quantum Mechanics Not the math-heavy physics — just the why behind superposition, entanglement, and the magic of measurement. 🎥 MIT Intro to Quantum Mechanics 📝 No need for Schrödinger’s equation — but intuition is essential.
It wasn’t about memorizing equations. It was about building intuition — and learning just enough of the theory to understand why this field behaves the way it does.
Here’s what I focused on — and what I’d recommend if you’re just starting out:
🎯 My Goal with This Series
This post is the first in a series where I’ll explore:
💬 Let’s Learn Together
If you're into machine learning, AI, or product innovation — and you’re quantum-curious — you’re in the right place.
👉 What excites or confuses you about Quantum Machine Learning? Drop your thoughts — and let’s explore the future together.
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