QDaria Quantum Book#

A comprehensive educational resource covering quantum mechanics, quantum computing, quantum machine learning, post-quantum cryptography, and their real-world applications across the QDaria product ecosystem.


What You’ll Learn#

Quantum Mechanics

From wave-particle duality to density matrices. Build physical intuition for quantum phenomena.

Introduction to Quantum Mechanics
Quantum Computation

Gate model, algorithms (Shor, Grover, VQE), error correction, and multi-framework programming.

Introduction to Quantum Computing
Quantum Hardware

Superconducting qubits, trapped ions, photonics, topological approaches, and the DiVincenzo criteria.

Introduction to Quantum Hardware
Quantum ML

Variational circuits, quantum kernels, hybrid algorithms, and quantum-enhanced optimization.

Introduction to Quantum Machine Learning
Post-Quantum Crypto

NIST FIPS 203/204/205, lattice cryptography, QRNG, and the quantum threat timeline.

Introduction to Post-Quantum Cryptography
Interactive Notebooks

15 hands-on Jupyter notebooks with Colab launch buttons. Learn by doing.

01_quickstart

QDaria Products#

Zipminator

PQC encryption infrastructure

Zipminator: PQC Encryption Infrastructure
Qm9

Quantum finance & HFT

Qm9: Quantum Finance Platform
QDiana

Education & ESG certification

QDiana: Quantum Education & ESG
QMikeAI

Quantum HPC/CFD research

QMikeAI: Quantum HPC/CFD
THQAI

Quantum LLM & artifacts

THQAI: Quantum AI Platform

Framework Coverage#

All code examples are provided in four quantum computing frameworks:

Framework

Provider

Strengths

Qiskit

IBM

Largest ecosystem, real hardware access

Cirq

Google

Low-level control, Sycamore access

PennyLane

Xanadu

ML integration, autodiff

PyQuil

Rigetti

Quilc compiler, forest SDK

Q# (Microsoft) is included where topological quantum computing is discussed.


How to Use This Book#

  1. Foundations first: Parts I-V build conceptual understanding

  2. Products: Parts VI-X show real-world applications

  3. Notebooks: Part XI provides hands-on practice with Colab buttons

  4. Appendix: Reference material, glossary, and curated resources

Prerequisites

Basic linear algebra (vectors, matrices, eigenvalues) and Python programming. No prior quantum knowledge required.