La tua guida al quantum computing.
0%
Menu
Cos'è il quantum? La tecnologia I Diversi Computer Quantistici Cambiare il mondo La Storia della Sicurezza Panoramica degli investimenti Impara (curriculum) Aziende Applicazioni Glossario Timeline Valutare le affermazioni Corsi Quantum, But Friendly Inside a Quantum Computer Quantum in the Real World Quantum Computing Foundations Quantum Circuits, Algorithms, and Industry Fault-Tolerant Quantum Computing and Technical Strategy I miei progressi Notizie FAQ Risorse aggiuntive Chiedi a Quantum Agenti IA ★ Salvato
Informazioni Chi siamo Metodologia Contatti Avvertenza
I miei progressi
0%

Curioso del Quantistico

Vedi i progressi completi
SALVA I TUOI PROGRESSI

Progress lives in this browser and is lost if you log out or clear it: unless you save it with your email. Same email on any device = same progress.

Modalità scura

Vista guidata
Sei alle prime armi? Aggiungiamo suggerimenti e promemoria in linguaggio semplice mentre impari. Le stesse lezioni, con il supporto già incluso.

Vista esperto
You just want the lessons: clean, fast and compact, with no extra reminders. This is the default view.

Lingua dell'interfaccia

Quantum Circuits, Algorithms, and Industry · Modulo 5/8: Canonical Quantum Algorithms

Obiettivi di apprendimento
  • Explain the core ideas in canonical quantum algorithms.
  • Apply the concepts to a small circuit or business/technical evaluation.
  • Identify limitations and appropriate benchmarks.
Tap Next (or use your arrow keys) to move one idea at a time. A fixed three-question check waits at the end: the course's own checkpoint, same questions every attempt. The ← up top exits whenever you like; progress keeps.

Grover amplitude amplification

Grover's algorithm searches an unstructured space of N candidates in O(√N) oracle calls. It prepares a superposition, marks target states by phase, and repeatedly reflects amplitudes to amplify the target.

Grover provides a quadratic (not exponential) speedup and assumes an efficient oracle.

Quantum phase estimation

Phase estimation extracts an eigenphase of a unitary when supplied an eigenstate. It underlies order finding, energy estimation, and many fault-tolerant algorithms. Its precision requirements drive circuit depth and qubit resources.

Phase estimation is a central bridge between quantum dynamics and useful numerical answers.

Shor and cryptography

Shor's algorithm reduces factoring and discrete logarithms to period finding and phase-estimation-like procedures. It threatens RSA and elliptic-curve cryptography on sufficiently large fault-tolerant hardware.

The algorithm is known; the remaining uncertainty is the engineering scale and timing of a cryptographically relevant machine.

Applied activity

Complete a simulator or analysis exercise: reproduce the lesson's central example, record assumptions and outputs, and explain one source of error or limitation.

Verifica del modulo: Canonical Quantum Algorithms

3 questions: drawn fresh from the bank every attempt. Pass mark 60%. Unlimited retakes.

Leggi il testo completo della lezione

1. Grover amplitude amplification

Grover's algorithm searches an unstructured space of N candidates in O(√N) oracle calls. It prepares a superposition, marks target states by phase, and repeatedly reflects amplitudes to amplify the target.

Grover provides a quadratic (not exponential) speedup and assumes an efficient oracle.

2. Quantum phase estimation

Phase estimation extracts an eigenphase of a unitary when supplied an eigenstate. It underlies order finding, energy estimation, and many fault-tolerant algorithms. Its precision requirements drive circuit depth and qubit resources.

Phase estimation is a central bridge between quantum dynamics and useful numerical answers.

3. Shor and cryptography

Shor's algorithm reduces factoring and discrete logarithms to period finding and phase-estimation-like procedures. It threatens RSA and elliptic-curve cryptography on sufficiently large fault-tolerant hardware.

The algorithm is known; the remaining uncertainty is the engineering scale and timing of a cryptographically relevant machine.

4. Applied activity

Complete a simulator or analysis exercise: reproduce the lesson's central example, record assumptions and outputs, and explain one source of error or limitation.

Quantum, But Friendly

How Small Is Small?The Spinning CoinBit vs QubitSpooky Friends Test finale

Inside a Quantum Computer

The Golden ChandelierHow It ThinksGood At, Bad At Test finale

Quantum in the Real World

Quantum You Already OwnThe Great Quantum RaceFollowing the Quantum Money Test finale

L'Academy

Quantum Computing FoundationsQuantum Circuits, Algorithms, and IndustryFault-Tolerant Quantum Computing and Technical Strategy Il curriculum completo

Risposte rapide

GlossarioFAQ Risorse aggiuntiveChiedi a Quantum Notizie Quantistiche