Quantum computers and quantum programming
summary
Good choice when concrete takeaways matter: gives actual claims (Shor threatens RSA but practical breakers remain years away, Google’s 2019 quantum advantage is limited), concrete tooling (Qiskit and Q# and Jupyter notebooks), device snapshots (IBM ~50 qubits, superconducting chips in millikelvin fridges), annealing use cases (D‑Wave 5,640 qubits for optimization) and small empirical results (Grover demo on 4–32 items shows speedups but noisy outputs). Skip if only a conceptual history or high‑level hype is desired — this is about hardware limits, cloud access, encoding/embedding steps and what actually works today.
AI-written summary · about
chapters (19)
- 0:00Quantum computers intro
- 1:13Why quantum computers needed
- 7:41Quantum computing basics
- 14:55Building quantum computer
- 20:34Quantum annealing
- 24:12Quantum hardware challenges
- 29:59Quantum devices today
- 31:05How quantum programming works
- 34:43Quantum annealing programming
- 37:31Quantum market overview
- 41:11Accessing quantum devices
- 44:01Quantum future and apps
- 44:44Q&A: Quantum components
- 45:26Q&A: Near-zero temperatures
- 47:14Q&A: Cybersecurity threats
- 49:02Q&A: Quantum applications
- 51:13Q&A: Quantum advantage
- 51:56Q&A: Quantum storage and input/output challenges
- 53:01Q&A: Entanglement paradox
related talks
28mThe future of computing with Quantum Computing
42mA Supremely Light Introduction to Quantum Computing
51mA Beginner's Guide To Programming Quantum Computers With Open-...
01h 01mQuantum Computing Concepts
24mQuantum Computing: a Treasure Hunt, not a Gold Rush
41mQuantum Computing Deep Dive
42mIntroduction to Quantum Computing
19mAll Together Now! Programming the Quantum Computer