Quantum Learning Reference

Comprehensive guide to quantum computing concepts, algorithms, and SDK resources.

Quantum Fundamentals

Quantum Bits (Qubits)

The basic units of quantum information, represented by superposition states and entanglement.

// Qubit initialization let q = qubit();
// Apply Hadamard gate H(q);
// Measure qubit let result = measure(q);

Quantum Entanglement

Create correlated states between qubits where the measurement of one instantaneously affects the other, regardless of distance.

// Create entangled qubits let [q0, q1] = entangle();
// Apply Bell measurement let state = bellMeasure(q0, q1);

Core Quantum Concepts

Superposition

The principle that a qubit can exist in multiple states simultaneously until measured.

Decoherence

Loss of quantum coherence due to interactions with the environment, causing collapse of superposition states.

Quantum Gates

Elementary quantum operations on qubits like Hadamard, Pauli, and CNOT gates.

Key Quantum Algorithms

Shor's Algorithm

Efficiently factors large integers, has implications for breaking RSA encryption.

                            
factor(14);
// Quantum processing
let period = findQuantumPeriod(14);
// Apply Euclidean algorithm
gcd(period, 14);

                        
More Details

Grover's Algorithm

Quantum search algorithm that finds an entry in a database with quadratic speedup.

                            
let oracle = createOracle([13, 7, 21, 19]);
let result = groverSearch(oracle);

                        
Implementation Guide

Algorithm Comparison

Algorithm Speedup Use Case
Shor Exponential Integer Factoring
Grover Quadratic Database Search
Deutsch-Jozsa Exponential Function Classification

SDK Reference

Quantum SDK

Core quantum computing operations and utilities.

                            
// Initialize qubits
let [q0, q1] = newQubits(2);

// Apply quantum operations
H(q0);
CNOT(q0, q1);

                        
Full SDK Docs

Quantum Math

Matrix operations, vector math, and quantum state calculations.

                            
// Tensor product calculation
let result = tensorProduct([[1,0],[0,1]], 
                          [[0,1],[1,0]]);

// Quantum state normalization
let norm = normalizeState([[1,1],[0,1]]);

                        
Math API

Circuit Visualizer

Tools for creating, rendering, and debugging quantum circuits.

                            
// Create circuit with 3 qubits
let circuit = newCircuit(3);

// Add gates operations
circuit.addGate("H", 0);
circuit.addGate("CNOT", [0, 1]);
circuit.addMeasurement(2);

                        
Circuit Docs

Quantum Glossary

Bit vs Qubit

Classical bits have definite values (0 or 1) while quantum bits exist in probabilistic superposition states.

Decoherence

The loss of quantum coherence due to interactions with environment, leading to state collapse.

Entanglement

A property allowing quantum states to depend on the state of other particles instantaneously.

Qudit

A d-dimensional quantum system, extending the concept of qubits to higher dimensions.

Quantum Reference Diagram

Click and drag to explore interactive quantum concepts: qubit states, entanglement, and gate operations.